Big Data Technologies and Architectures are crucial for handling massive datasets. From and Spark to NoSQL databases, these tools enable processing, storage, and analysis of structured and unstructured data at scale.
Distributed computing, batch vs real-time processing, and thoughtful architecture design are key concepts. Understanding these technologies and approaches helps organizations extract valuable insights from their data, driving informed decision-making and innovation.
Big Data Technologies and Tools
Core Big Data Frameworks and Platforms
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Hadoop processes and stores large volumes of structured, semi-structured, and unstructured data
Consists of components like (Hadoop Distributed File System) for storage
Uses for distributed processing
performs fast, in-memory data processing
Supports batch processing, real-time streaming, machine learning, and graph processing
Provides APIs for Java, Scala, Python, and R
NoSQL databases handle large-scale, unstructured data
Document-oriented databases store data in flexible, JSON-like documents (MongoDB)
Column-oriented databases optimize for queries over large datasets (Cassandra)
Graph databases efficiently store and query highly connected data (Neo4j)
Data Processing and Analytics Tools
Stream processing technologies enable real-time data ingestion and analysis
functions as a distributed messaging system for high-throughput data streams
processes unbounded and bounded data streams at scale
Machine learning libraries implement advanced analytics and predictive modeling
builds and trains neural networks for deep learning applications
provides dynamic computational graphs for flexible model development
offers a wide range of algorithms for classification, regression, and clustering
Data visualization tools present insights in easily understandable formats
creates interactive and data stories
integrates with Microsoft products for business intelligence reporting
builds custom, web-based data visualizations using JavaScript
Distributed Computing for Big Data
Fundamentals of Distributed Computing
Distributed computing divides large computational tasks across multiple networked computers
Improves processing efficiency and speed for big data workloads
Enables horizontal scaling by adding more machines to the cluster
MapReduce programming model facilitates parallel processing of data
Map phase distributes data and computations across nodes
Reduce phase aggregates results from individual nodes
Distributed file systems store and retrieve large datasets across multiple machines
HDFS (Hadoop Distributed File System) provides fault tolerance through data replication
(GFS) inspired the development of HDFS
Resource Management and Task Scheduling
Cluster management systems allocate resources and schedule tasks
(Yet Another Resource Negotiator) manages resources in Hadoop clusters
orchestrates containerized applications across distributed environments
Load balancing techniques ensure even distribution of workloads
Round-robin scheduling assigns tasks to nodes in a circular order
Least connection method directs new tasks to the node with the fewest active connections
Fault tolerance mechanisms maintain system reliability
Data replication creates multiple copies of data across different nodes
Task reallocation reassigns failed tasks to healthy nodes in the cluster
Batch vs Real-Time Data Processing
Characteristics of Batch Processing
Batch processing collects and processes data in large, discrete groups
Suited for complex analytics on large volumes of historical data
Typically runs at scheduled intervals (daily, weekly, monthly)
Advantages of batch processing include:
Ability to handle very large datasets efficiently
Comprehensive analysis of complete datasets
Lower operational costs due to scheduled resource usage
Common batch processing technologies:
Hadoop MapReduce for distributed batch processing
for SQL-like querying of large datasets
for high-level data flow scripting
Real-Time Processing Fundamentals
Real-time processing continuously ingests and analyzes data as it's generated
Provides immediate insights and actions on incoming data
Ideal for time-sensitive applications requiring low-latency results
Advantages of real-time processing include:
Immediate response to changing conditions or events
Ability to detect and respond to patterns or anomalies in real-time
Support for interactive applications and live dashboards
Popular real-time processing technologies:
Apache Kafka for high-throughput, fault-tolerant messaging
Apache Flink for stateful computations over data streams
for distributed real-time computation
Hybrid Approaches and Considerations
Lambda architecture combines batch and real-time processing
Batch layer processes historical data for comprehensive views
Speed layer handles real-time data for immediate insights
Serving layer combines results from both layers for query responses
Factors influencing the choice between batch and real-time processing:
Data volume and velocity requirements
Business needs for data freshness and latency
Complexity of analytics and computations required
Available infrastructure and resources
Big Data Architecture Design
Data Ingestion and Storage Layer
Data ingestion layer collects and imports data from various sources
Apache Kafka ingests real-time streaming data from multiple producers
Apache Flume collects, aggregates, and moves large amounts of log data
Apache Sqoop transfers data between Hadoop and relational databases
Data storage layer selects appropriate solutions based on data types and access patterns
HDFS provides large-scale distributed storage for unstructured data
offers column-oriented storage for semi-structured data
serves as a scalable object storage system for cloud-based architectures
Data Processing and Analytics Layer
Data processing layer incorporates technologies for transformation, analysis, and modeling
Apache Spark performs in-memory processing for batch and stream data
Apache Flink enables stateful computations over data streams
Apache Drill provides SQL query engine for various data sources
Analytics and machine learning components support advanced data analysis
offers scalable machine learning algorithms
provides an open-source machine learning platform
enables interactive data analytics with notebook interfaces
Data Visualization and Consumption Layer
Data visualization layer presents insights and makes data accessible to end-users
Tableau creates interactive dashboards and reports
offers a modern, enterprise-ready business intelligence web application
visualizes time series data for monitoring and observability
API and service layer exposes data and analytics results to applications
RESTful APIs provide programmatic access to processed data
GraphQL enables flexible querying of data from multiple sources
Apache Kafka Connect integrates streaming data with external systems