This document provides an introduction to a course on big data and analytics. It outlines the instructor and teaching assistant contact information. It then lists the main topics to be covered, including data analytics and mining techniques, Hadoop/MapReduce programming, graph databases and analytics. It defines big data and discusses the 3Vs of big data - volume, variety and velocity. It also covers big data technologies like cloud computing, Hadoop, and graph databases. Course requirements and the grading scheme are outlined.
This document provides an introduction to a course on big data and analytics. It outlines the following key points:
- The instructor and TA contact information and course homepage.
- The course will cover foundational data analytics, Hadoop/MapReduce programming, graph databases, and other big data topics.
- Big data is defined as data that is too large or complex for traditional database tools to process. It is characterized by high volume, velocity, and variety.
- Examples of big data sources and the exponential growth of data volumes are provided. Real-time analytics and fast data processing are also discussed.
This document provides an introduction to a course on big data. It outlines the instructor and TA contact information. The topics that will be covered include data analytics, Hadoop/MapReduce programming, graph databases and analytics. Big data is defined as data sets that are too large and complex for traditional database tools to handle. The challenges of big data include capturing, storing, analyzing and visualizing large, complex data from many sources. Key aspects of big data are the volume, variety and velocity of data. Cloud computing, virtualization, and service-oriented architectures are important enabling technologies for big data. The course will use Hadoop and related tools for distributed data processing and analytics. Assessment will include homework, a group project, and class
What exactly is big data? The definition of big data is data that contains greater variety, arriving in increasing volumes and with more velocity. This is also known as the three Vs. Put simply, big data is larger, more complex data sets, especially from new data sources.
This document provides an introduction to big data. It defines big data as large and complex data sets that are difficult to process using traditional data management tools. It discusses the three V's of big data - volume, variety and velocity. Volume refers to the large scale of data. Variety means different data types. Velocity means the speed at which data is generated and processed. The document outlines topics that will be covered, including Hadoop, MapReduce, data mining techniques and graph databases. It provides examples of big data sources and challenges in capturing, analyzing and visualizing large and diverse data sets.
This document provides an overview of big data and business analytics. It discusses the key characteristics of big data, including volume, variety, and velocity. Volume refers to the enormous and growing amount of data being generated. Variety means data comes in all types from structured to unstructured. Velocity indicates that data is being created in real-time and needs to be analyzed rapidly. The document also outlines some of the challenges of big data and how cloud computing and technologies like Hadoop are helping to manage and analyze large, complex data sets.
Big data refers to large, complex datasets that are difficult to process using traditional database management tools. It is characterized by the 3 V's - volume, referring to the large scale of data; variety, referring to different data types; and velocity, referring to the speed at which data is generated and processed. Common sources of big data include social media, sensors, and scientific instruments. Hadoop and Spark are commonly used to process and analyze big data in distributed, parallel systems. Cloud computing provides on-demand access to computing resources and is well-suited for flexible big data applications.
This document provides an overview of big data and how to start a career working with big data. It discusses the growth of data from various sources and challenges of dealing with large, unstructured data. Common data types and measurement units are defined. Hadoop is introduced as an open-source framework for storing and processing big data across clusters of computers. Key components of Hadoop's ecosystem are explained, including HDFS for storage, MapReduce/Spark for processing, and Hive/Impala for querying. Examples are given of how companies like Walmart and UPS use big data analytics to improve business decisions. Career opportunities and typical salaries in big data are also mentioned.
Big data analytics tools from vendors like IBM, Tableau, and SAS can help organizations process and analyze big data. For smaller organizations, Excel is often used, while larger organizations employ data mining, predictive analytics, and dashboards. Business intelligence applications include OLAP, data mining, and decision support systems. Big data comes from many sources like web logs, sensors, social networks, and scientific research. It is defined by the volume, variety, velocity, veracity, variability, and value of the data. Hadoop and MapReduce are common technologies for storing and analyzing big data across clusters of machines. Stream analytics is useful for real-time analysis of data like sensor data.
This document discusses cloud computing, big data, Hadoop, and data analytics. It begins with an introduction to cloud computing, explaining its benefits like scalability, reliability, and low costs. It then covers big data concepts like the 3 Vs (volume, variety, velocity), Hadoop for processing large datasets, and MapReduce as a programming model. The document also discusses data analytics, describing different types like descriptive, diagnostic, predictive, and prescriptive analytics. It emphasizes that insights from analyzing big data are more valuable than raw data. Finally, it concludes that cloud computing can enhance business efficiency by enabling flexible access to computing resources for tasks like big data analytics.
The document discusses cloud computing, big data, and big data analytics. It defines cloud computing as an internet-based technology that provides on-demand access to computing resources and data storage. Big data is described as large and complex datasets that are difficult to process using traditional databases due to their size, variety, and speed of growth. Hadoop is presented as an open-source framework for distributed storage and processing of big data using MapReduce. The document outlines the importance of analyzing big data using descriptive, diagnostic, predictive, and prescriptive analytics to gain insights.
The Practice of Big Data - The Hadoop ecosystem explained with usage scenarioskcmallu
?
What's the origin of Big Data? What are the real life usage scenarios where Hadoop has been successfully adopted? How do you get started within your organizations?
Developed by Google’s Artificial Intelligence division, the Sycamore quantum processor boasts 53 qubits1.
In 2019, it achieved a feat that would take a state-of-the-art supercomputer 10,000 years to accomplish: completing a specific task in just 200 seconds1
The document discusses big data analysis and provides an introduction to key concepts. It is divided into three parts: Part 1 introduces big data and Hadoop, the open-source software framework for storing and processing large datasets. Part 2 provides a very quick introduction to understanding data and analyzing data, intended for those new to the topic. Part 3 discusses concepts and references to use cases for big data analysis in the airline industry, intended for more advanced readers. The document aims to familiarize business and management users with big data analysis terms and thinking processes for formulating analytical questions to address business problems.
Big Data: Its Characteristics And Architecture CapabilitiesAshraf Uddin
?
This document discusses big data, including its definition, characteristics, and architecture capabilities. It defines big data as large datasets that are challenging to store, search, share, visualize, and analyze due to their scale, diversity and complexity. The key characteristics of big data are described as volume, velocity and variety. The document then outlines the architecture capabilities needed for big data, including storage and management, database, processing, data integration and statistical analysis capabilities. Hadoop and MapReduce are presented as core technologies for storage, processing and analyzing large datasets in parallel across clusters of computers.
SMAC - Social, Mobile, Analytics and Cloud - An overview Rajesh Menon
?
In this presentation, all the aspects of SMAC are covered in as much detail as possible. You will find some ideas worth sharing and also get attuned to Social, Mobile, Analytics and Cloud
Big Data Serving with Vespa - Jon Bratseth, Distinguished Architect, OathYahoo Developer Network
?
Offline and stream processing of big data sets can be done with tools such as Hadoop, Spark, and Storm, but what if you need to process big data at the time a user is making a request? Vespa (http://www.vespa.ai) allows you to search, organize and evaluate machine-learned models from e.g TensorFlow over large, evolving data sets with latencies in the tens of milliseconds. Vespa is behind the recommendation, ad targeting, and search at Yahoo where it handles billions of daily queries over billions of documents.
This overview presentation discusses big data challenges and provides an overview of the AWS Big Data Platform by covering:
- How AWS customers leverage the platform to manage massive volumes of data from a variety of sources while containing costs.
- Reference architectures for popular use cases, including, connected devices (IoT), log streaming, real-time intelligence, and analytics.
- The AWS big data portfolio of services, including, Amazon S3, Kinesis, DynamoDB, Elastic MapReduce (EMR), and Redshift.
- The latest relational database engine, Amazon Aurora— a MySQL-compatible, highly-available relational database engine, which provides up to five times better performance than MySQL at one-tenth the cost of a commercial database.
Created by: Rahul Pathak,
Sr. Manager of Software Development
This document provides an introduction to big data, including definitions and key characteristics. It discusses how big data is defined as extremely large and complex datasets that cannot be managed by traditional systems due to issues of volume, velocity, and variety. It outlines three key characteristics of big data: volume (scale), variety (complexity), and velocity (speed). Examples are given of different types and sources of big data. The document also introduces cloud computing and how it relates to big data management and processing. Finally, it provides an overview of topics to be covered, including frameworks, modeling, warehousing, ETL, and specific analytic techniques.
The document discusses Big Data architectures and Oracle's solutions for Big Data. It provides an overview of key components of Big Data architectures, including data ingestion, distributed file systems, data management capabilities, and Oracle's unified reference architecture. It describes techniques for operational intelligence, exploration and discovery, and performance management in Big Data solutions.
1. The document discusses the future of data science and big data technologies. It describes the roles of data scientists and their typical skills, salaries, and job outlook.
2. It discusses technologies like Hadoop, Spark, and distributed computing that are used to handle big data. While Hadoop is good for batch processing, Spark can perform both batch and real-time processing 100x faster.
3. Going forward, data science will shift from descriptive to predictive analytics using machine learning to improve customer experience and business outcomes across industries like internet search and digital advertising.
This document summarizes a talk on using big data driven solutions to combat COVID-19. It discusses how big data preparation involves ingesting, cleansing, and enriching data from various sources. It also describes common big data technologies used for storage, mining, analytics and visualization including Hadoop, Presto, Kafka and Tableau. Finally, it provides examples of research projects applying big data and AI to track COVID-19 cases, model disease spread, and optimize health resource utilization.
Dr. Christian Kurze from Denodo, "Data Virtualization: Fulfilling the Promise...Dataconomy Media
?
This document discusses data virtualization and how it can help organizations leverage data lakes to access all their data from disparate sources through a single interface. It addresses how data virtualization can help avoid data swamps, prevent physical data lakes from becoming silos, and support use cases like IoT, operational data stores, and offloading. The document outlines the benefits of a logical data lake created through data virtualization and provides examples of common use cases.
Using real time big data analytics for competitive advantageAmazon Web Services
?
Many organisations find it challenging to successfully perform real-time data analytics using their own on premise IT infrastructure. Building a system that can adapt and scale rapidly to handle dramatic increases in transaction loads can potentially be quite a costly and time consuming exercise.
Most of the time, infrastructure is under-utilised and it’s near impossible for organisations to forecast the amount of computing power they will need in the future to serve their customers and suppliers.
To overcome these challenges, organisations can instead utilise the cloud to support their real-time data analytics activities. Scalable, agile and secure, cloud-based infrastructure enables organisations to quickly spin up infrastructure to support their data analytics projects exactly when it is needed. Importantly, they can ‘switch off’ infrastructure when it is not.
BluePi Consulting and Amazon Web Services (AWS) are giving you the opportunity to discover how organisations are using real time data analytics to gain new insights from their information to improve the customer experience and drive competitive advantage.
Businesses are generating more data than ever before.
Doing real time data analytics requires IT infrastructure that often needs to be scaled up quickly and running an on-premise environment in this setting has its limitations.
Organisations often require a massive amount of IT resources to analyse their data and the upfront capital cost can deter them from embarking on these projects.
What’s needed is scalable, agile and secure cloud-based infrastructure at the lowest possible cost so they can spin up servers that support their data analysis projects exactly when they are required. This infrastructure must enable them to create proof-of-concepts quickly and cheaply – to fail fast and move on.
Data Science Lectures Data Science Lectures Data Science Lectures Data Science Lectures Data Science Lectures Data Science Lectures Data Science Lectures Data Science Lectures Data Science Lectures Data Science Lectures Data Science Lectures Data Science Lectures
This document provides an overview of big data and how to start a career working with big data. It discusses the growth of data from various sources and challenges of dealing with large, unstructured data. Common data types and measurement units are defined. Hadoop is introduced as an open-source framework for storing and processing big data across clusters of computers. Key components of Hadoop's ecosystem are explained, including HDFS for storage, MapReduce/Spark for processing, and Hive/Impala for querying. Examples are given of how companies like Walmart and UPS use big data analytics to improve business decisions. Career opportunities and typical salaries in big data are also mentioned.
Big data analytics tools from vendors like IBM, Tableau, and SAS can help organizations process and analyze big data. For smaller organizations, Excel is often used, while larger organizations employ data mining, predictive analytics, and dashboards. Business intelligence applications include OLAP, data mining, and decision support systems. Big data comes from many sources like web logs, sensors, social networks, and scientific research. It is defined by the volume, variety, velocity, veracity, variability, and value of the data. Hadoop and MapReduce are common technologies for storing and analyzing big data across clusters of machines. Stream analytics is useful for real-time analysis of data like sensor data.
This document discusses cloud computing, big data, Hadoop, and data analytics. It begins with an introduction to cloud computing, explaining its benefits like scalability, reliability, and low costs. It then covers big data concepts like the 3 Vs (volume, variety, velocity), Hadoop for processing large datasets, and MapReduce as a programming model. The document also discusses data analytics, describing different types like descriptive, diagnostic, predictive, and prescriptive analytics. It emphasizes that insights from analyzing big data are more valuable than raw data. Finally, it concludes that cloud computing can enhance business efficiency by enabling flexible access to computing resources for tasks like big data analytics.
The document discusses cloud computing, big data, and big data analytics. It defines cloud computing as an internet-based technology that provides on-demand access to computing resources and data storage. Big data is described as large and complex datasets that are difficult to process using traditional databases due to their size, variety, and speed of growth. Hadoop is presented as an open-source framework for distributed storage and processing of big data using MapReduce. The document outlines the importance of analyzing big data using descriptive, diagnostic, predictive, and prescriptive analytics to gain insights.
The Practice of Big Data - The Hadoop ecosystem explained with usage scenarioskcmallu
?
What's the origin of Big Data? What are the real life usage scenarios where Hadoop has been successfully adopted? How do you get started within your organizations?
Developed by Google’s Artificial Intelligence division, the Sycamore quantum processor boasts 53 qubits1.
In 2019, it achieved a feat that would take a state-of-the-art supercomputer 10,000 years to accomplish: completing a specific task in just 200 seconds1
The document discusses big data analysis and provides an introduction to key concepts. It is divided into three parts: Part 1 introduces big data and Hadoop, the open-source software framework for storing and processing large datasets. Part 2 provides a very quick introduction to understanding data and analyzing data, intended for those new to the topic. Part 3 discusses concepts and references to use cases for big data analysis in the airline industry, intended for more advanced readers. The document aims to familiarize business and management users with big data analysis terms and thinking processes for formulating analytical questions to address business problems.
Big Data: Its Characteristics And Architecture CapabilitiesAshraf Uddin
?
This document discusses big data, including its definition, characteristics, and architecture capabilities. It defines big data as large datasets that are challenging to store, search, share, visualize, and analyze due to their scale, diversity and complexity. The key characteristics of big data are described as volume, velocity and variety. The document then outlines the architecture capabilities needed for big data, including storage and management, database, processing, data integration and statistical analysis capabilities. Hadoop and MapReduce are presented as core technologies for storage, processing and analyzing large datasets in parallel across clusters of computers.
SMAC - Social, Mobile, Analytics and Cloud - An overview Rajesh Menon
?
In this presentation, all the aspects of SMAC are covered in as much detail as possible. You will find some ideas worth sharing and also get attuned to Social, Mobile, Analytics and Cloud
Big Data Serving with Vespa - Jon Bratseth, Distinguished Architect, OathYahoo Developer Network
?
Offline and stream processing of big data sets can be done with tools such as Hadoop, Spark, and Storm, but what if you need to process big data at the time a user is making a request? Vespa (http://www.vespa.ai) allows you to search, organize and evaluate machine-learned models from e.g TensorFlow over large, evolving data sets with latencies in the tens of milliseconds. Vespa is behind the recommendation, ad targeting, and search at Yahoo where it handles billions of daily queries over billions of documents.
This overview presentation discusses big data challenges and provides an overview of the AWS Big Data Platform by covering:
- How AWS customers leverage the platform to manage massive volumes of data from a variety of sources while containing costs.
- Reference architectures for popular use cases, including, connected devices (IoT), log streaming, real-time intelligence, and analytics.
- The AWS big data portfolio of services, including, Amazon S3, Kinesis, DynamoDB, Elastic MapReduce (EMR), and Redshift.
- The latest relational database engine, Amazon Aurora— a MySQL-compatible, highly-available relational database engine, which provides up to five times better performance than MySQL at one-tenth the cost of a commercial database.
Created by: Rahul Pathak,
Sr. Manager of Software Development
This document provides an introduction to big data, including definitions and key characteristics. It discusses how big data is defined as extremely large and complex datasets that cannot be managed by traditional systems due to issues of volume, velocity, and variety. It outlines three key characteristics of big data: volume (scale), variety (complexity), and velocity (speed). Examples are given of different types and sources of big data. The document also introduces cloud computing and how it relates to big data management and processing. Finally, it provides an overview of topics to be covered, including frameworks, modeling, warehousing, ETL, and specific analytic techniques.
The document discusses Big Data architectures and Oracle's solutions for Big Data. It provides an overview of key components of Big Data architectures, including data ingestion, distributed file systems, data management capabilities, and Oracle's unified reference architecture. It describes techniques for operational intelligence, exploration and discovery, and performance management in Big Data solutions.
1. The document discusses the future of data science and big data technologies. It describes the roles of data scientists and their typical skills, salaries, and job outlook.
2. It discusses technologies like Hadoop, Spark, and distributed computing that are used to handle big data. While Hadoop is good for batch processing, Spark can perform both batch and real-time processing 100x faster.
3. Going forward, data science will shift from descriptive to predictive analytics using machine learning to improve customer experience and business outcomes across industries like internet search and digital advertising.
This document summarizes a talk on using big data driven solutions to combat COVID-19. It discusses how big data preparation involves ingesting, cleansing, and enriching data from various sources. It also describes common big data technologies used for storage, mining, analytics and visualization including Hadoop, Presto, Kafka and Tableau. Finally, it provides examples of research projects applying big data and AI to track COVID-19 cases, model disease spread, and optimize health resource utilization.
Dr. Christian Kurze from Denodo, "Data Virtualization: Fulfilling the Promise...Dataconomy Media
?
This document discusses data virtualization and how it can help organizations leverage data lakes to access all their data from disparate sources through a single interface. It addresses how data virtualization can help avoid data swamps, prevent physical data lakes from becoming silos, and support use cases like IoT, operational data stores, and offloading. The document outlines the benefits of a logical data lake created through data virtualization and provides examples of common use cases.
Using real time big data analytics for competitive advantageAmazon Web Services
?
Many organisations find it challenging to successfully perform real-time data analytics using their own on premise IT infrastructure. Building a system that can adapt and scale rapidly to handle dramatic increases in transaction loads can potentially be quite a costly and time consuming exercise.
Most of the time, infrastructure is under-utilised and it’s near impossible for organisations to forecast the amount of computing power they will need in the future to serve their customers and suppliers.
To overcome these challenges, organisations can instead utilise the cloud to support their real-time data analytics activities. Scalable, agile and secure, cloud-based infrastructure enables organisations to quickly spin up infrastructure to support their data analytics projects exactly when it is needed. Importantly, they can ‘switch off’ infrastructure when it is not.
BluePi Consulting and Amazon Web Services (AWS) are giving you the opportunity to discover how organisations are using real time data analytics to gain new insights from their information to improve the customer experience and drive competitive advantage.
Businesses are generating more data than ever before.
Doing real time data analytics requires IT infrastructure that often needs to be scaled up quickly and running an on-premise environment in this setting has its limitations.
Organisations often require a massive amount of IT resources to analyse their data and the upfront capital cost can deter them from embarking on these projects.
What’s needed is scalable, agile and secure cloud-based infrastructure at the lowest possible cost so they can spin up servers that support their data analysis projects exactly when they are required. This infrastructure must enable them to create proof-of-concepts quickly and cheaply – to fail fast and move on.
Data Science Lectures Data Science Lectures Data Science Lectures Data Science Lectures Data Science Lectures Data Science Lectures Data Science Lectures Data Science Lectures Data Science Lectures Data Science Lectures Data Science Lectures Data Science Lectures
The truth behind the numbers: spotting statistical misuse.pptxandyprosser3
?
As a producer of official statistics, being able to define what misinformation means in relation to data and statistics is so important to us.
For our sixth webinar, we explored how we handle statistical misuse especially in the media. We were also joined by speakers from the Office for Statistics Regulation (OSR) to explain how they play an important role in investigating and challenging the misuse of statistics across government.
CloudMonitor - Architecture Audit Review February 2025.pdfRodney Joyce
?
CloudMonitor FinOps is now a Microsoft Certified solution in the Azure Marketplace. This little badge means that we passed a 3rd-party Technical Audit as well as met various sales KPIs and milestones over the last 12 months.
We used our existing Architecture docs for CISOs and Cloud Architects to craft an Audit Response - I've shared it below to help others obtain their cert.
Interestingly, 90% of our customers are in the USA, with very few in Australia. This is odd as the first thing I hear in every meetup and conference, from partners, customers and Microsoft, is that they want to optimise their cloud spend! But very few Australian companies are using the FinOps Framework to lower Azure costs.
RAGing Against the Literature: LLM-Powered Dataset Mention Extraction-present...suchanadatta3
?
Dataset Mention Extraction (DME) is a critical task in the field of scientific information extraction, aiming to identify references
to datasets within research papers. In this paper, we explore two advanced methods for DME from research papers, utilizing the
capabilities of Large Language Models (LLMs). The first method
employs a language model with a prompt-based framework to ex-
tract dataset names from text chunks, utilizing patterns of dataset mentions as guidance. The second method integrates the Retrieval-Augmented Generation (RAG) framework, which enhances dataset extraction through a combination of keyword-based filtering, semantic retrieval, and iterative refinement.
Deep-QPP: A Pairwise Interaction-based Deep Learning Model for Supervised Que...suchanadatta3
?
Motivated by the recent success of end-to-end deep neural models
for ranking tasks, we present here a supervised end-to-end neural
approach for query performance prediction (QPP). In contrast to
unsupervised approaches that rely on various statistics of document
score distributions, our approach is entirely data-driven. Further,
in contrast to weakly supervised approaches, our method also does
not rely on the outputs from different QPP estimators. In particular, our model leverages information from the semantic interactions between the terms of a query and those in the top-documents retrieved with it. The architecture of the model comprises multiple layers of 2D convolution filters followed by a feed-forward layer of parameters. Experiments on standard test collections demonstrate
that our proposed supervised approach outperforms other state-of-the-art supervised and unsupervised approaches.
Design Data Model Objects for Analytics, Activation, and AIaaronmwinters
?
Explore using industry-specific data standards to design data model objects in Data Cloud that can consolidate fragmented and multi-format data sources into a single view of the customer.
Design of the data model objects is a critical first step in setting up Data Cloud and will impact aspects of the implementation, including the data harmonization and mappings, as well as downstream automations and AI processing. This session will provide concrete examples of data standards in the education space and how to design a Data Cloud data model that will hold up over the long-term as new source systems and activation targets are added to the landscape. This will help architects and business analysts accelerate adoption of Data Cloud.
Relationship between Happiness & LifeQuality .pdfwrachelsong
?
There a lot of studies showing the correlation between GDP by country and average life satisfcation. Usually, most countries with higher GDP tend to have higher average life satisfaction scores. Inspired by this findings, I began to wonder.. 'What other aspects of life significantly contribute to happiness?' Specifically, we wanted to explore which quality of life indicators have a significant relationship with the happiness scores of different regions.
Research Question : Which quality of life indicators have a significant relationship with the happiness score among different regions?
To address this question, we decided to investigate various factors that might influence happiness, including economic stability, health, social support, and more.
HIRE MUYERN TRUST HACKER FOR AUTHENTIC CYBER SERVICESanastasiapenova16
?
It’s hard to imagine the frustration and helplessness a 65-year-old man with limited computer skills must feel when facing the aftermath of a crypto scam. Recovering a hacked trading wallet can feel like an absolute nightmare, especially when every step seems to lead you into an endless loop of failed solutions. That’s exactly what I went through over the past four weeks. After my trading wallet was compromised, the hacker changed my email address, password, and even removed my phone number from the account. For someone with little technical expertise, this was not just overwhelming, it was a disaster. Every suggested solution I came across in online help centers was either too complex or simply ineffective. I tried countless links, tutorials, and forums, only to find myself stuck, not even close to reclaiming my stolen crypto. In a last-ditch effort, I turned to Google and stumbled upon a review about MUYERN TRUST HACKER. At first, I was skeptical, like anyone would be in my position. But the glowing reviews, especially from people with similar experiences, gave me a glimmer of hope. Despite my doubts, I decided to reach out to them for assistance.The team at MUYERN TRUST HACKER immediately put me at ease. They were professional, understanding, and reassuring. Unlike other services that felt impersonal or automated, they took the time to walk me through every step of the recovery process. The fact that they were willing to schedule a 25-minute session to help me properly secure my account after recovery was invaluable. Today, I’m grateful to say that my stolen crypto has been fully recovered, and my account is secure again. This experience has taught me that sometimes, even when you feel like all hope is lost, there’s always a way to fight back. If you’re going through something similar, don’t give up. Reach out to MUYERN TRUST HACKER. Even if you’ve already tried everything, their expertise and persistence might just be the solution you need.I wholeheartedly recommend MUYERN TRUST HACKER to anyone facing the same situation. Whether you’re a novice or experienced in technology, they’re the right team to trust when it comes to recovering stolen crypto or securing your accounts. Don’t hesitate to contact them, it's worth it. Reach out to them on telegram at muyerntrusthackertech or web: ht tps :// muyerntrusthacker . o r g for faster response.
2. Welcome!
? Instructor: Ruoming Jin
? Office: 264 MCS Building
? Email: jin AT cs.kent.edu
? Office hour: Mondays (4:30PM to 5:30PM) or by appointment
? TA: Xinyu Chang
? Email: xchang AT kent.edu
? Homepage: http://www.cs.kent.edu/~jin/BigData/index.html
2
3. Topics
? Scope: Big Data & Analytics
? Topics:
– Foundation of Data Analytics and Data Mining
– Hadoop/Map-Reduce Programming and Data Processing &
BigTable/Hbase/Cassandra
– Graph Database and Graph Analytics
3
4. What’s Big Data?
No single definition; here is from Wikipedia:
? Big data is the term for a collection of data sets so large and complex that
it becomes difficult to process using on-hand database management tools or
traditional data processing applications.
? The challenges include capture, curation, storage, search, sharing, transfer,
analysis, and visualization.
? The trend to larger data sets is due to the additional information derivable
from analysis of a single large set of related data, as compared to separate
smaller sets with the same total amount of data, allowing correlations to be
found to "spot business trends, determine quality of research, prevent
diseases, link legal citations, combat crime, and determine real-time
roadway traffic conditions.”
4
6. Volume (Scale)
? Data Volume
? 44x increase from 2009 2020
? From 0.8 zettabytes to 35zb
? Data volume is increasing exponentially
6
Exponential increase in
collected/generated data
7. 12+ TBs
of tweet data
every day
25+ TBs of
log data
every day
?
TBs
of
data
every
day
2+
billion
people on
the Web
by end
2011
30 billion RFID
tags today
(1.3B in 2005)
4.6
billion
camera
phones
world
wide
100s of
millions
of GPS
enabled
devices
sold
annually
76 million smart
meters in 2009…
200M by 2014
8. Maximilien Brice, ? CERN
CERN’s Large Hydron Collider (LHC) generates 15 PB a year
9. The Earthscope
? The Earthscope is the world's largest science
project. Designed to track North America's
geological evolution, this observatory records
data over 3.8 million square miles, amassing 67
terabytes of data. It analyzes seismic slips in the
San Andreas fault, sure, but also the plume of
magma underneath Yellowstone and much, much
more.
(http://www.msnbc.msn.com/id/44363598/ns/t
echnology_and_science-
future_of_technology/#.TmetOdQ--uI)
10. Variety (Complexity)
? Relational Data (Tables/Transaction/Legacy Data)
? Text Data (Web)
? Semi-structured Data (XML)
? Graph Data
? Social Network, Semantic Web (RDF), …
? Streaming Data
? You can only scan the data once
? A single application can be generating/collecting many
types of data
? Big Public Data (online, weather, finance, etc)
10
To extract knowledge? all these types
of data need to linked together
11. A Single View to the Customer
Customer
Social
Media
Gamin
g
Entertai
n
Bankin
g
Financ
e
Our
Known
History
Purchas
e
12. Velocity (Speed)
? Data is begin generated fast and need to be processed fast
? Online Data Analytics
? Late decisions ? missing opportunities
? Examples
? E-Promotions: Based on your current location, your purchase
history, what you like ? send promotions right now for store next
to you
? Healthcare monitoring: sensors monitoring your activities and
body ? any abnormal measurements require immediate reaction
12
13. Real-time/Fast Data
? The progress and innovation is no longer hindered by the ability to collect data
? But, by the ability to manage, analyze, summarize, visualize, and discover knowledge
from the collected data in a timely manner and in a scalable fashion
13
Social media and networks
(all of us are generating data)
Scientific instruments
(collecting all sorts of data)
Mobile devices
(tracking all objects all the time
Sensor technology and
networks
(measuring all kinds of data)
14. Real-Time Analytics/Decision Requirement
Customer
Influence
Behavior
Product
Recommendations
that are Relevant
& Compelling
Friend Invitations
to join a
Game or Activity
that expands
business
Preventing Fraud
as it is Occurring
& preventing more
proactively
Learning why Customers
Switch to competitors
and their offers; in
time to Counter
Improving the
Marketing
Effectiveness of a
Promotion while it
is still in Play
16. Harnessing Big Data
? OLTP: Online Transaction Processing (DBMSs)
? OLAP: Online Analytical Processing (Data Warehousing)
? RTAP: Real-Time Analytics Processing (Big Data Architecture & technology)
16
17. The Model Has Changed…
? The Model of Generating/Consuming Data has Changed
17
Old Model: Few companies are generating data, all others are consuming data
New Model: all of us are generating data, and all of us are consuming
data
18. What’s driving Big Data
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- Ad-hoc querying and reporting
- Data mining techniques
- Structured data, typical sources
- Small to mid-size datasets
- Optimizations and predictive analytics
- Complex statistical analysis
- All types of data, and many sources
- Very large datasets
- More of a real-time
19. Big Data:
Batch Processing &
Distributed Data
Store
Hadoop/Spark;
HBase/Cassandra
BI Reporting
OLAP &
Dataware house
Business Objects, SAS,
Informatica, Cognos other
SQL Reporting Tools
Interactive
Business
Intelligence &
In-memory RDBMS
QliqView, Tableau, HANA
Big Data:
Real Time &
Single View
Graph Databases
The Evolution of Business Intelligence
1990’s 2000’s 2010’s
Speed
Scale
Scale
Speed
20. Big Data Analytics
? Big data is more real-time in
nature than traditional DW
applications
? Traditional DW architectures
(e.g. Exadata, Teradata) are not
well-suited for big data apps
? Shared nothing, massively
parallel processing, scale out
architectures are well-suited for
big data apps
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23. Cloud Computing
? IT resources provided as a service
? Compute, storage, databases, queues
? Clouds leverage economies of scale of commodity
hardware
? Cheap storage, high bandwidth networks & multicore
processors
? Geographically distributed data centers
? Offerings from Microsoft, Amazon, Google, …
25. Benefits
? Cost & management
? Economies of scale, “out-sourced” resource management
? Reduced Time to deployment
? Ease of assembly, works “out of the box”
? Scaling
? On demand provisioning, co-locate data and compute
? Reliability
? Massive, redundant, shared resources
? Sustainability
? Hardware not owned
26. Types of Cloud Computing
? Public Cloud: Computing infrastructure is hosted at the
vendor’s premises.
? Private Cloud: Computing architecture is dedicated to
the customer and is not shared with other organisations.
? Hybrid Cloud: Organisations host some critical, secure
applications in private clouds. The not so critical
applications are hosted in the public cloud
? Cloud bursting: the organisation uses its own infrastructure for
normal usage, but cloud is used for peak loads.
? Community Cloud
27. Classification of Cloud Computing
based on Service Provided
? Infrastructure as a service (IaaS)
? Offering hardware related services using the principles of cloud computing. These could include storage services (database or disk
storage) or virtual servers.
? Amazon EC2, Amazon S3, Rackspace Cloud Servers and Flexiscale.
? Platform as a Service (PaaS)
? Offering a development platform on the cloud.
? Google’s Application Engine, Microsofts Azure, Salesforce.com’s
force.com .
? Software as a service (SaaS)
? Including a complete software offering on the cloud. Users can
access a software application hosted by the cloud vendor on pay-
per-use basis. This is a well-established sector.
? Salesforce.coms’ offering in the online Customer Relationship
Management (CRM) space, Googles gmail and Microsofts hotmail,
Google docs.
30. Key Ingredients in Cloud
Computing
? Service-Oriented Architecture (SOA)
? Utility Computing (on demand)
? Virtualization (P2P Network)
? SAAS (Software As A Service)
? PAAS (Platform AS A Service)
? IAAS (Infrastructure AS A Servie)
? Web Services in Cloud
32. Everything as a Service
? Utility computing = Infrastructure as a Service (IaaS)
? Why buy machines when you can rent cycles?
? Examples: Amazon’s EC2, Rackspace
? Platform as a Service (PaaS)
? Give me nice API and take care of the maintenance, upgrades, …
? Example: Google App Engine
? Software as a Service (SaaS)
? Just run it for me!
? Example: Gmail, Salesforce
33. Cloud versus cloud
? Amazon Elastic Compute Cloud
? Google App Engine
? Microsoft Azure
? GoGrid
? AppNexus
34. The Obligatory Timeline 狠狠撸
(Mike Culver @ AWS)
COBOL,
Edsel
Amazon.com
Darkness
Web as a
Platform
Web Services,
Resources Eliminated
Web
Awareness
Internet
ARPANET
Dot-Com Bubble Web 2.0 Web Scale
Computing
35. AWS
? Elastic Compute Cloud – EC2 (IaaS)
? Simple Storage Service – S3 (IaaS)
? Elastic Block Storage – EBS (IaaS)
? SimpleDB (SDB) (PaaS)
? Simple Queue Service – SQS (PaaS)
? CloudFront (S3 based Content Delivery Network – PaaS)
? Consistent AWS Web Services API
39. Topic 1: Data Analytics &
Data Mining
? Exploratory Data Analysis
? Linear Classification (Perceptron & Logistic Regression)
? Linear Regression
? C4.5 Decision Tree
? Apriori
? K-means Clustering
? EM Algorithm
? PageRank & HITS
? Collaborative Filtering
40. Topic 2: Hadoop/MapReduce
Programming & Data Processing
? Architecture of Hadoop, HDFS, and Yarn
? Programming on Hadoop
? Basic Data Processing: Sort and Join
? Information Retrieval using Hadoop
? Data Mining using Hadoop (Kmeans+Histograms)
? Machine Learning on Hadoop (EM)
? Hive/Pig
? HBase and Cassandra
42. Textbooks
? No Official Textbooks
? References:
? Hadoop: The Definitive Guide, Tom White, O’Reilly
? Hadoop In Action, Chuck Lam, Manning
? Data-Intensive Text Processing with MapReduce, Jimmy Lin and Chris Dyer
(www.umiacs.umd.edu/~jimmylin/MapReduce-book-final.pdf)
? Data Mining: Concepts and Techniques, Third Edition, by Jiawei Han et al.
? Many Online Tutorials and Papers
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43. Cloud Resources
? Hadoop on your local machine
? Hadoop in a virtual machine on your local machine
(Pseudo-Distributed on Ubuntu)
? Hadoop in the clouds with Amazon EC2
44. Course Prerequisite
? Prerequisite:
? Java Programming / C++
? Data Structures and Algorithm
? Computer Architecture
? Basic Statistics and Probability
? Database and Data Mining (preferred)
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45. This course is not for you…
? If you do not have a strong Java programming
background
? This course is not about only programming (on Hadoop).
? Focus on “thinking at scale” and algorithm design
? Focus on how to manage and process Big Data!
? No previous experience necessary in
? MapReduce
? Parallel and distributed programming
47. Project
? Project (due April 24th)
– One project: Group size <= 4 students
– Checkpoints
? Proposal: title and goal (due March 1st)
? Outline of approach (due March 15th)
? Implementation and Demo (April 24th and 26th)
? Final Project Report (due April 29th)
– Each group will have a short presentation and demo (15-20
minutes)
– Each group will provide a five-page document on the
project; the responsibility and work of each student shall
be described precisely
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