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Introduction to Strom
Md. Shamsur Rahim
Student of MScCS
American International University
Bangladesh
Types of Processing of Big Data
• Batch Processing
▫ Takes large amount Data at a time, analyzes it and
produces a large output.
• Real-Time Processing
▫ Collects, analyzes and produces output in Real
time.
Let’s get Familiar with Strom
• Storm is an open source software.
• Currently being incubated at the Apache
Software Foundation.
• Industry leaders choose it because it’s
distributed, real-time, data processing platform.
Possible Areas of Using Strom
• Stream processing:
▫ Storm is used to process a stream of data and update a
variety of Databases in real time.
▫ This processing occurs in real time and the processing
speed needs to match the input data speed.
• Continuous computation:
▫ Storm can do continuous computation on data streams
and stream the results into clients in real time.
• Distributed RPC ()
▫ Storm can parallelize an intense query so that you can
compute it in real time.
• Real-time analytics:
▫ Storm can analyze and respond to data that comes
▫ from different data sources as they happen in real
time.
Features of Storm
• Fast
• Horizontally scalable:
▫ As it is distributed platform, we can add nodes (1
node = 1 single machine) to Strom cluster.
▫ We can double the processing capacity by
Doubling the nodes.
• Fault tolerant
• Guaranteed data processing
• Easy to operate
• Programming language agnostic
Storm components
A Storm cluster
follows a master-
slave model where
the master and
slave processes are
coordinated
through
ZooKeeper.
Storm components: Nimbus
• Nimbus:
▫ is the master in a Storm cluster.
▫ It is responsible for :
 distributing application code across various worker
nodes
 assigning tasks to different machines
 monitoring tasks for any failures
 restarting them as and when required
▫ It is stateless.
▫ Stores all of its data in ZooKeeper.
▫ Only one Nimbus node in a Storm Cluster.
▫ It can be restarted without having any effects on the
already running tasks on the worker nodes.
Storm components: Supervisor nodes
• Supervisor nodes
▫ are the worker nodes in a Storm cluster.
▫ Each supervisor node runs a supervisor daemon that is
responsible for-
 creating,
 Starting and
 Stopping
worker processes to execute the tasks assigned to that
node.
▫ Like Nimbus, a supervisor daemon is also fail-fast and
stores all of its state in ZooKeeper so that it can be
restarted without any state loss.
▫ A single supervisor daemon normally handles multiple
worker processes .
Storm components: The ZooKeeper cluster
• ZooKeeper is an application that:
▫ Coordinates,
▫ Shares some configuration information
Among various processes.
▫ Being a distributed application, Storm also uses a
ZooKeeper cluster to coordinate various processes.
▫ All of the states associated with the cluster and the various
tasks submitted to the Storm are stored in ZooKeeper.
▫ Nimbus and Supervisor Nodes communicate only through
ZooKeeper.
▫ As all data are stored in ZooKeeper, So any time we can kill
Nimbus or supervisor daemons without affecting cluster.
The Storm data model
• Basic unit of data that can be processed by a Storm
application is called a tuple.
• Each tuple consists of a predefined list of fields.
• The value of each field can be a byte, char, integer,
long, float, double, Boolean, or byte array.
• Storm also provides an API to define your own data
types, which can be serialized as fields in a tuple.
• A tuple is dynamically typed, that is, you just need to
define the names of the fields in a tuple and not
their data type.
• Fields in a tuple can be accessed by its name
getValueByField(String) or its positional
index getValue(int).
Definition of a Storm topology
• A topology is an abstraction that
defines the graph of the
computation.
• We create a Storm topology and
deploy it on a Storm cluster to
process the data.
• A topology can be represented by a
direct acyclic graph.
The Components of a Storm topology:
Stream
• Stream:
▫ The key abstraction in Storm is that of a stream.
▫ It is an unbounded sequence of tuples that can be
processed in parallel by Storm.
▫ Each stream can be processed by a single or
multiple types of bolts.
▫ Each stream in a Storm application is given an ID.
▫ The bolts can produce and consume tuples from
these streams on the basis of their ID.
▫ Each stream also has an associated schema for the
tuples that will flow through it.(????)
The Components of a Storm topology:
Spout
• Spout:
▫ A spout is the source of tuples in a Storm topology.
▫ It is responsible for reading or listening to data
from an external source and publishing them—
emitting (into stream).
▫ A spout can emit multiple streams.
▫ Some important methods of spout are:
nextTuple() ack(Object msgId)
open() fail(Object msgId)
The Components of a Storm topology:
Bolt• Bolt:
▫ A bolt is the processing powerhouse of a Storm topology.
▫ It is responsible for transforming a stream.
▫ each bolt in the topology should be doing a simple
transformation of the tuples.
▫ many such bolts can coordinate with each other to exhibit a
complex transformation.
▫ Some important methods of Bolt are:
 execute(Tuple input):
 This method is executed for each tuple that comes through
the subscribed input streams.
 prepare(Map stormConf, TopologyContext
context, OutputCollector collector):
 In this method, you should make sure the bolt is properly
configured to execute tuples now.
Operation modes
Operation modes indicate how the topology is
deployed in Storm.
• The local mode:
▫ Storm topologies run on the local machine in a
single JVM.
• The remote mode:
▫ we will use the Storm client to submit the topology
to the master along with all the necessary code
required to execute the topology.
1 storm-intro

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1 storm-intro

  • 1. Introduction to Strom Md. Shamsur Rahim Student of MScCS American International University Bangladesh
  • 2. Types of Processing of Big Data • Batch Processing ▫ Takes large amount Data at a time, analyzes it and produces a large output. • Real-Time Processing ▫ Collects, analyzes and produces output in Real time.
  • 3. Let’s get Familiar with Strom • Storm is an open source software. • Currently being incubated at the Apache Software Foundation. • Industry leaders choose it because it’s distributed, real-time, data processing platform.
  • 4. Possible Areas of Using Strom • Stream processing: ▫ Storm is used to process a stream of data and update a variety of Databases in real time. ▫ This processing occurs in real time and the processing speed needs to match the input data speed. • Continuous computation: ▫ Storm can do continuous computation on data streams and stream the results into clients in real time. • Distributed RPC () ▫ Storm can parallelize an intense query so that you can compute it in real time. • Real-time analytics: ▫ Storm can analyze and respond to data that comes ▫ from different data sources as they happen in real time.
  • 5. Features of Storm • Fast • Horizontally scalable: ▫ As it is distributed platform, we can add nodes (1 node = 1 single machine) to Strom cluster. ▫ We can double the processing capacity by Doubling the nodes. • Fault tolerant • Guaranteed data processing • Easy to operate • Programming language agnostic
  • 6. Storm components A Storm cluster follows a master- slave model where the master and slave processes are coordinated through ZooKeeper.
  • 7. Storm components: Nimbus • Nimbus: ▫ is the master in a Storm cluster. ▫ It is responsible for :  distributing application code across various worker nodes  assigning tasks to different machines  monitoring tasks for any failures  restarting them as and when required ▫ It is stateless. ▫ Stores all of its data in ZooKeeper. ▫ Only one Nimbus node in a Storm Cluster. ▫ It can be restarted without having any effects on the already running tasks on the worker nodes.
  • 8. Storm components: Supervisor nodes • Supervisor nodes ▫ are the worker nodes in a Storm cluster. ▫ Each supervisor node runs a supervisor daemon that is responsible for-  creating,  Starting and  Stopping worker processes to execute the tasks assigned to that node. ▫ Like Nimbus, a supervisor daemon is also fail-fast and stores all of its state in ZooKeeper so that it can be restarted without any state loss. ▫ A single supervisor daemon normally handles multiple worker processes .
  • 9. Storm components: The ZooKeeper cluster • ZooKeeper is an application that: ▫ Coordinates, ▫ Shares some configuration information Among various processes. ▫ Being a distributed application, Storm also uses a ZooKeeper cluster to coordinate various processes. ▫ All of the states associated with the cluster and the various tasks submitted to the Storm are stored in ZooKeeper. ▫ Nimbus and Supervisor Nodes communicate only through ZooKeeper. ▫ As all data are stored in ZooKeeper, So any time we can kill Nimbus or supervisor daemons without affecting cluster.
  • 10. The Storm data model • Basic unit of data that can be processed by a Storm application is called a tuple. • Each tuple consists of a predefined list of fields. • The value of each field can be a byte, char, integer, long, float, double, Boolean, or byte array. • Storm also provides an API to define your own data types, which can be serialized as fields in a tuple. • A tuple is dynamically typed, that is, you just need to define the names of the fields in a tuple and not their data type. • Fields in a tuple can be accessed by its name getValueByField(String) or its positional index getValue(int).
  • 11. Definition of a Storm topology • A topology is an abstraction that defines the graph of the computation. • We create a Storm topology and deploy it on a Storm cluster to process the data. • A topology can be represented by a direct acyclic graph.
  • 12. The Components of a Storm topology: Stream • Stream: ▫ The key abstraction in Storm is that of a stream. ▫ It is an unbounded sequence of tuples that can be processed in parallel by Storm. ▫ Each stream can be processed by a single or multiple types of bolts. ▫ Each stream in a Storm application is given an ID. ▫ The bolts can produce and consume tuples from these streams on the basis of their ID. ▫ Each stream also has an associated schema for the tuples that will flow through it.(????)
  • 13. The Components of a Storm topology: Spout • Spout: ▫ A spout is the source of tuples in a Storm topology. ▫ It is responsible for reading or listening to data from an external source and publishing them— emitting (into stream). ▫ A spout can emit multiple streams. ▫ Some important methods of spout are: nextTuple() ack(Object msgId) open() fail(Object msgId)
  • 14. The Components of a Storm topology: Bolt• Bolt: ▫ A bolt is the processing powerhouse of a Storm topology. ▫ It is responsible for transforming a stream. ▫ each bolt in the topology should be doing a simple transformation of the tuples. ▫ many such bolts can coordinate with each other to exhibit a complex transformation. ▫ Some important methods of Bolt are:  execute(Tuple input):  This method is executed for each tuple that comes through the subscribed input streams.  prepare(Map stormConf, TopologyContext context, OutputCollector collector):  In this method, you should make sure the bolt is properly configured to execute tuples now.
  • 15. Operation modes Operation modes indicate how the topology is deployed in Storm. • The local mode: ▫ Storm topologies run on the local machine in a single JVM. • The remote mode: ▫ we will use the Storm client to submit the topology to the master along with all the necessary code required to execute the topology.