revolutionized big data processing. and , two powerful frameworks, tackle massive datasets by dividing tasks across computer clusters. They offer , , and , making them essential tools in modern data science.
Hadoop excels in huge datasets, while Spark shines in real-time analytics and . Both use and , providing cost-effective solutions for organizations dealing with ever-growing data volumes and complex computations.
Hadoop Ecosystem Architecture
Core Components of Hadoop
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stores large data sets reliably and streams them at high bandwidth to user applications
(Yet Another Resource Negotiator) manages system resources and schedules tasks across the cluster
programming model processes vast amounts of data in parallel on large clusters
Hadoop Common provides utilities and libraries supporting other Hadoop modules
Extended Hadoop Ecosystem
maintains configuration information, naming, distributed synchronization, and group services
data warehousing tool facilitates querying and managing large datasets stored in distributed storage
high-level data flow language simplifies the creation of MapReduce programs
non-relational distributed database provides real-time read/write access to large datasets
Distributed Computing with Hadoop and Spark
Fundamental Principles
Distributed computing divides problems into tasks solved by multiple computers over a network
Data locality moves computation to the data, minimizing network transfer of large datasets
Fault tolerance ensures job completion despite individual node failures in the cluster
Scalability allows addition of commodity hardware to increase processing power and storage
Comparative Strengths
Hadoop excels in batch processing of large datasets (terabytes to petabytes)
Spark specializes in and iterative algorithms using in-memory computing
Both frameworks provide cost-effective solutions utilizing commodity hardware and open-source software
Spark offers a more flexible programming model supporting multiple languages (Java, Scala, Python, R)
Data Processing with Hadoop and Spark
Hadoop MapReduce Implementation
MapReduce jobs typically use Java, defining Map and Reduce functions for key-value pair processing
Mapper processes input key-value pairs to generate intermediate key-value pairs
Reducer merges all intermediate values associated with the same intermediate key
Supports various (text files, sequence files, database connections)