Data Ingestion: Types, Tools, and Key Concepts

Data ingestion is a significant part of any data-centric process. Moving your data from one place to another is the foremost step. Ensuring you have the correct information at the right time is significant.

The most vital aspect of data ingestion is knowing what sort of data will be required by your target destination and how that destination will use that data once it arrives there.

What is Data Ingestion?

Data ingestion refers to transporting and loading data into a system. This data comes from various sources such as IoT devices, SaaS apps, on-premises databases, and data lakes and ends up in several target environments like data marts and cloud data warehouses.

It is one of the most crucial steps in any data analytics workflow. An organization must ingest data from several sources like CRM systems, social media platforms, financial systems, and email marketing platforms. Data scientists commonly perform data ingestion as it needs expertise in machine learning and programming languages such as R and Python.

Why is Data Ingestion So Significant?

Ingesting data helps teams go fast. Data teams get flexibility and agility, as the scope of the data pipeline is purposely narrow. Once criteria are defined, data scientists and analysts can quickly develop a data pipeline to transfer data. Common data ingestion examples include:

  • Move data from various sources to a data warehouse, then analyze with Tableau.
  • Capture data from a social media platform feed for real-time sentiment analysis.
  • Acquire data for training machine learning experimentation and models.

Types of Data Ingestion

  1. Real-time data ingestion: Real-time data ingestion is the process of transferring data from several sources into a central data repository in real-time as the data is produced. Real-time ingestion is best for time-sensitive data sets like IoT devices and financial transaction data.
  2. Batch ingestion refers to the mechanism of shifting data from several systems into a central data repository in infrequent and large batches. Batch ingestion is best for data sets that are not time-sensitive and do not need prompt processing.
  3. Stream ingestion: It is defined as the process of continually transferring data from several sources into a central data repository. Once the data is received, it is processed, enabling real-time analysis and decision-making.
  4. Micro-batch ingestion refers to the process of shifting data from several sources into a central data repository in frequent and small batches. Micro-batch ingestion is a hybrid between real-time and batch ingestion, enabling near-real-time ingestion and offering batch processing when required.

Critical Concepts in Data Ingestion

Some fundamental concepts involved in data ingestion include:

  1. Data sources are defined as the origin of the data being ingested into the central data repository. Common examples include logs, APIs, databases, and IoT devices.
  2. Data quality: It refers to the consistency, completeness, relevance, and accuracy of the data being ingested into the central data depot. Poor data quality often affects the outcomes of data analysis and decision-making.
  3. Data transformation refers to converting raw data into a homogenized format appropriate for further processing and analysis. This includes transforming, filtering, and cleaning the data to meet specific demands.
  4. Data loading refers to shifting the transformed data from the provisional location to the central data depot. Based on the ingestion data type, this may include real-time, incremental, and bulk loading.
  5. Data indexing and storage: It refers to storing and organizing the ingested data in a way that is easily accessible and efficient for further evaluation. It includes using data warehouses, databases, and cloud storage solutions.
  6. Data normalization is defined as decreasing data redundancy and ensuring data consistency by arranging data into separate tables. It helps to reduce data inconsistencies and anomalies, enhancing the accuracy and reliability of the data.

Data Ingestion Tools

1. Apache NiFi

It is a flow management and data ingestion tool which offers a web-based interface for managing and designing data flows. It is built to be scalable and can manage large amounts of data in real time.

Features:

  • Web-based interface for managing and designing data flows.
  • Scalable and can manage vast amounts of data in real time.
  • Offer an intuitive visual interface for managing and monitoring data flows.
  • Helps in prioritization of data flows and parallel processing.
  • Offers a broad range of pre-built processors and connectors for flow management and data ingestion.

Benefits:

  • High-performance flow management and data ingestion.
  • Offer centralized and secure grounds for handling data flows.
  • Provides real-time data management and processing.
  • Easy to use and needs no coding experience.

Use cases:

  • Data management and integration
  • Real-time data processing
  • Log and metrics collection
  • Data quality and governance
  • Internet of Things (IoT) Data ingestion

Examples:

  • Gathering and aggregating log data from several sources
  • Consolidating and managing data from several APIs and databases
  • Processing and ingesting sensor data from IoT devices

2. Apache Kafka

It is a scalable, distributed, and highly accessible publish-subscribe messaging unit that can be used for data streaming and ingestion. In real time, it can handle large volumes of data.

Features:

  • Offers a low-latency and high-throughput platform for data processing.
  • Offer an intuitive visual interface for managing and monitoring data streams.
  • Provide prioritization and parallel processing of data flows.

Benefits:

  • Provides real-time data management and processing.
  • Offer a secure and centralized platform for handling data streams.
  • High-performance data processing and ingestion.
  • Scalable and can manage large amounts of data in real time.

Use cases:

  • Event-driven architecture
  • Data integration and management
  • Stream processing
  • Log and metrics collection
  • Real-time data processing

Examples:

  • Aggregating and processing real-time financial data.
  • Processing real-time data from social media platforms.
  • Ingesting and processing sensor data from IoT devices.

3. AWS Glue

It is a highly managed extract, transform, and load (ETL) service, making it easy to move data between data stores. This software can ingest real-time batch data from a variety of sources, including APIs, log files, and databases.

Features:

  • Fully managed ETL service.
  • Offers several pre-built processors and connectors for flow management and data ingestion.
  • Offers an intuitive visual interface for managing and monitoring data flows.

Benefits:

  • Provide a secure and centralized system for data management flow.
  • Provides real-time data management and processing.
  • High-performance flow management and data ingestion.

Use cases:

  • Data management and integration
  • Real-time data processing
  • Log and metrics collection
  • Data quality and governance
  • Internet of Things (IoT) Data ingestion

Examples:

  • Processing and ingesting sensor data from IoT devices.
  • Transforming and processing data through cloud-derived data sources.
  • Gathering and aggregating log data from several services.

4. Apache Flume

It is a scalable, reliable, and distribution service for aggregating, gathering, and moving ample amounts of log data from several sources to a centralized depot. It is built for real-time and batch data ingestion and can manage vast data.

Features:

  • Supports both real-time and batch ingestion.
  • Supports recovery and failover
  • Efficient data transport through a fan-out, fan-in architecture
  • Flexible and straightforward configuration using plugins

Benefits:

  • High data reliability and availability
  • Centralized depot for all log data
  • Easy management of vast amounts of log data
  • Enhanced data reporting and analysis

Use cases:

  • Data migration from one depot to another.
  • Real-time data reporting and analysis.
  • Consolidation from Hadoop for large-scale data processing.
  • Centralized log data collection and analysis.

Examples:

  • Collecting and analyzing web server logs.
  • Data migration from outdated units to modern data stores.
  • Aggregation of log information from several applications.

Final Word

Data ingestion is a significant element of data pipelines, as it supports cleaning, standardization, and storing data for further processing and analysis. In this article, we have discussed it is significant to choose the appropriate tool and implement best practices to ensure the data ingestion process’s security, accuracy, and efficiency.

Irrespective of the amount of data you’re working with, small or big, data ingestion is essential in generating valuable insights from your company data.

How to ingest data?

A few main ways to ingest data include batch, real-time, and micro-batching processing.

What are Hadoop’s best practices for data ingestion?

Hadoop data ingestion refers to starting your data pipeline in a data lake. It means forming data from several silo databases and files and inserting them into Hadoop.

What is big data ingestion?

Big data ingestion is defined as collecting data from “big data” sources- event logs, streams, or operational database change events (CDC)- and writing it into storage, commonly in a format that supports analytical operations and querying.

What are data ingestion examples?

A data ingestion example is a mechanism by which data is gathered, stored, and organized to enable easy access. The most ordinary method to ingest data is using databases. They are structured to hold vast amounts of data and can be managed by several users simultaneously.

What is a data ingestion framework?

A data ingestion framework is a system or set of tools and processes designed to collect, retrieve, and import various data types from multiple sources into a central storage or processing system. It provides a structured approach to ingest data efficiently and reliably, ensuring data quality, scalability, and compatibility with downstream applications or analytics.
WRITTEN BY

Anjali Goyal

Anjali Goyal is a content writer at TechEela. She helps businesses increase their online presence with optimized and engaging content. Her service includes blog writing, technical writing, and digital marketing.
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