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Data Observability vs Data Quality: Understanding the Differences and Importance

In today’s data-driven world, businesses heavily rely on data to make informed decisions, optimize operations, and drive growth. However, ensuring the reliability and usability of this data is not straightforward. Two crucial concepts that come into play here are data observability and data quality. Although they share some similarities, they serve different purposes and address distinct aspects of data management. This article delves into the differences and importance of data observability vs. data quality, highlighting how both practices work together to ensure data integrity and reliability, offering a comprehensive understanding of both.Source: CriblWhat is Data Observability?Source: acceldataData observability refers to the ability to fully understand and monitor the health and performance of data systems. It includes understanding data lineage, which helps track data flow, behavior, and characteristics. It involves monitoring and analyzing data flows, detecting anomalies, and gaining insights into the root causes of issues. Data observability provides a holistic view of the entire data ecosystem, enabling organizations to ensure their data pipelines function as expected.Key Components of Data ObservabilitySource: TechTargetUnderstanding the critical components of data observability is essential for grasping how it contributes to the overall health of data systems. These components enable organizations to gain deep insights into their data operations, identify issues swiftly, and ensure the continuous delivery of reliable data. Root cause analysis is a critical component of data observability, helping to identify the reasons behind inaccuracies, inconsistencies, and anomalies in data streams and processes. The following paragraphs explain each element in detail and highlight its significance.Monitoring and Metrics in Data PipelinesMonitoring and metrics form the backbone of data observability by continuously tracking the performance of data pipelines. Through real-time monitoring, organizations can measure various aspects such as throughput, latency, and error rates. These metrics provide valuable insights into the pipeline’s efficiency and identify bottlenecks or areas where performance may deteriorate.Monitoring tools help set thresholds and generate alerts when metrics deviate from the norm, enabling proactive issue resolution before they escalate into significant problems. Data validation enforces predefined rules and constraints to guarantee data conforms to expectations, preventing downstream errors and ensuring data integrity.TracingTracing allows organizations to follow data elements through different data pipeline stages. By mapping the journey of data from its source to its destination, tracing helps pinpoint where issues occur and understand their impact on the overall process. Tracing is an integral part of data management processes, helping refine and improve how organizations manage their data.For example, tracing can reveal whether the problem originated from a specific data source, transformation, or storage layer if data corruption is detected at a particular stage. This granular insight is invaluable for diagnosing problems and optimizing data workflows.LoggingLogging captures detailed records of data processing activities, providing a rich source of information for troubleshooting and debugging. Logs document events, errors, transactions, and other relevant details within the data pipeline.By analyzing logs, data engineers can identify patterns, trace the origins of issues, and understand the context in which they occurred. Effective logging practices ensure that all critical events are captured, making maintaining transparency and accountability in data operations easier. Data profiling involves analyzing datasets to uncover patterns, distributions, anomalies, and potential issues, aiding in effective data cleansing and ensuring data adheres to defined standards.AlertingAlerting involves setting up notifications to inform stakeholders when anomalies or deviations from expected behavior are detected in the data pipeline. Alerts can be configured based on predefined thresholds or anomaly detection algorithms. For instance, an alert could be triggered if data latency exceeds a specific limit or error rates spike unexpectedly.Timely alerts enable rapid response to potential issues, minimizing their impact on downstream processes and ensuring that data consumers receive accurate and timely information. Alerting helps proactively identify and resolve data quality issues, ensuring accuracy, completeness, and consistency.What is Data Quality?Source: AlationData quality, on the other hand, focuses on the attributes that make data fit for its intended use. High-quality data is accurate, complete, consistent, timely, and relevant. Data quality involves processes and measures to cleanse, validate, and enrich data, making it reliable and valid for analysis and decision-making.Data quality and observability are both crucial for ensuring data reliability and accuracy, focusing on real-time monitoring, proactive issue detection, and understanding data health and performance.Key Dimensions of Data QualityIn data management, several key attributes determine the quality and effectiveness of data. Attributes such as accuracy, completeness, consistency, timeliness, and relevance ensure that data accurately reflects real-world entities, supports informed decision-making, and aligns with business objectives.AccuracyAccuracy is the degree to which data correctly represents the real-world entities it describes. Inaccurate data can lead to erroneous conclusions and misguided business decisions. Ensuring accuracy involves rigorous validation processes that compare data against known standards or sources of truth.For example, verifying customer addresses against official postal data can help maintain accurate records. High accuracy enhances the credibility of data and ensures that analyses and reports based on this data are reliable.CompletenessCompleteness refers to the extent to which all required data is available, and none is missing. Incomplete data can obscure critical insights and lead to gaps in analysis. Organizations must implement data collection practices that ensure all necessary fields are populated, and no vital information is overlooked.For instance, ensuring that all customer profiles contain mandatory details like contact information and purchase history is essential for comprehensive analysis. Complete data sets enable more thorough and meaningful interpretations.ConsistencyConsistency ensures uniformity of data across different datasets and systems. Inconsistent data can arise from discrepancies in data formats, definitions, or values used across various sources. Standardizing data entry protocols and implementing data integration solutions can help maintain consistency.For example, using a centralized data dictionary to define key terms and formats ensures that all departments interpret data uniformly. Consistent data enhances comparability and reduces misunderstandings.TimelinessTimeliness means that data is up-to-date and available when needed. Outdated data can lead to missed opportunities and incorrect assessments. Organizations should establish processes for regular data updates and synchronization to ensure timeliness.For instance, real-time data feeds from transaction systems can keep financial dashboards current. Timely data enables prompt decision-making and responsiveness to changing circumstances.RelevanceRelevance ensures that data is pertinent to the context and purpose for which it is used. Irrelevant data can clutter analysis and dilute focus. Organizations must align data collection and maintenance efforts with specific business objectives to ensure relevance.For example, collecting data on user interactions with a website can inform targeted marketing strategies. Relevant data supports precise and actionable insights, enhancing the value derived from data analysis.Data Observability vs. Data Quality: Key DifferencesSource: DQOpsQuality and data observability safeguard data-driven decisions, maintain data integrity, and address real-time issues. Here is a list of the key differences between the two:1. ScopeThe scope of data observability focuses on monitoring and understanding the data ecosystem’s health and performance. It encompasses the entire data pipeline, from ingestion to delivery, and ensures that all components function cohesively.Data quality, however, is concerned with the intrinsic attributes of the data itself, aiming to enhance its fitness for purpose. While observability tracks the operational state of data systems, quality measures assess the data’s suitability for analysis and decision-making.2. ApproachThe approach to achieving data observability involves monitoring, tracing, logging, and alerting. These methods provide real-time visibility into data processes, enabling quick identification and resolution of issues. Data quality enhances data attributes using cleansing, validation, and enrichment processes.It involves applying rules and standards to improve data accuracy, completeness, consistency, timeliness, and relevance. While observability ensures smooth data flow, quality management ensures the data is valuable and trustworthy. Implementing data quality and observability practices involves systematic and strategic steps, including data profiling, cleansing, validation, and observability.3. GoalsThe primary goal of data observability is to ensure the smooth functioning of data pipelines and early detection of problems. Organizations can prevent disruptions and maintain operational efficiency by maintaining robust observability practices. In contrast, data quality aims to provide accurate, complete, consistent, timely, and relevant data for analysis and decision-making.High-quality data supports reliable analytics, leading to more informed business strategies. Both observability and quality are essential for a holistic data management strategy, but they focus on different objectives.Why Both MatterUnderstanding the differences between data observability and data quality highlights why both are crucial for a robust data strategy. Organizations need comprehensive visibility into their data systems to maintain operational efficiency and quickly address issues. Simultaneously, they must ensure their data meets quality standards to support reliable analytics and decision-making.Benefits of Data ObservabilitySource: InTechHouseHigh-quality data is essential for deriving precise business intelligence, making informed decisions, and maintaining regulatory compliance. Organizations can unlock valuable insights, support better decision-making, and meet industry standards by ensuring data accuracy.Accurate Insights: High-quality data leads to more precise and actionable business intelligence. Accurate data forms the foundation of reliable analytics and reporting, enabling organizations to derive meaningful insights from their data.With accurate insights, businesses can more precisely identify trends, spot opportunities, and address challenges, leading to more effective strategies and improved outcomes.Better Decision-Making: Reliable data supports informed and effective strategic decisions. When decision-makers have access to high-quality data, they can base their choices on solid evidence rather than assumptions.This leads to better-aligned strategies, optimized resource allocation, and improved overall performance. Reliable data empowers organizations to navigate complex environments confidently and make decisions that drive success.Regulatory Compliance: Adhering to data quality standards helps meet regulatory requirements and avoid penalties. Many industries have strict data regulations that mandate accurate and reliable data handling.Organizations can ensure compliance with these regulations by maintaining high data quality and reducing the risk of legal and financial repercussions. Regulatory compliance enhances the organization’s reputation and builds trust with customers and partners.ConclusionIn the debate of data observability vs data quality, it is clear that both play vital roles in ensuring the effectiveness of an organization’s data strategy. While data observability provides the tools to monitor and maintain healthy data systems, data quality ensures the data is reliable and valuable. By integrating both practices, organizations can achieve a comprehensive approach to managing their data, ultimately leading to better outcomes and sustained growth.Do you have any further questions or need additional insights on this topic?

Aziro Marketing

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4 AI and Analytics trends to watch for in 2020-2021

Never did we imagine the fictional robotic characters in novellas to become a reality. However, we wished, didn’t we? The theory of ‘Bots equal to Brains’ is now becoming a possibility. The mesmerizing and reverence Artificial Intelligence (AI) that we as children saw in the famous TV show- The Richie Rich has now become a plausible reality. Maybe, we are not fully prepared to leverage AI/Robotics as part of our daily lives; however, it has already created a buzz, profoundly among the technology companies. AI has found a strong foothold in the realms of data analytics and data insights. Companies have started to leverage advanced algorithms garnering actionable insights form a vast set of data for smart customer interactions, better engagement rates, and newer revenue streams. Today, Intelligence-driven Machine Learning intrigues most companies in different industries globally; however, not all exploit its true potentials. Combining AI with Analytics can help us drive intelligent automation delivering enriched customer experiences. Defining AI in Data Analytics This can be broad. However, to summarize, it means using AI in gathering, sorting, analyzing a large chunk of unstructured data, and generating valuable and actionable insights driving quality leads. Big players triggering the storm around AI AI may sound scary or fascinating in the popular imagination; however, some of the global companies have understood its path-breaking impact and invested in it to deliver smart outputs. Many big guns like IBM, Google, and Facebook are at the forefront, driving the AI bandwagon for better human and machine co-ordination. Facebook, for instance, implements advanced algorithms triggering automatic photo tagging options and relevant story suggestions (based on user search, likes, comments, etc.). However, with big players triggering the storm around AI, marketers are slowly realizing the importance of humongous data available online for brand building and acquiring new customers. Hence, we can expect a profound shift towards AI application in Data Analytics in the future. What’s in store for Independent Software Vendors (ISVs) and Enterprise teams With the use of machine learning algorithms, Independent Software Vendors and Enterprise teams can personalize the product offerings using sentimental analysis, voice recognition, or engagement patterns. The application of AI can automate the tasks while giving a fair idea of their expectations and needs. This could help product teams in bringing out innovative ideas. Product specialists can also differentiate between bots and people, prioritize responses based on customers, and identify competitor strategies concerning customer engagements. One of the key elements that AI will gain weight among product marketers will be its advantage in real-time response. The changing business dynamics and customer preferences make it crucial to draft responses in real-time and consolidate customer trust. Leveraging AI will ensure that you, as a brand, are ready to meet customer needs without wasting any time. Let us understand a classic example of how real-time intelligent social media analytics can create new opportunities. Lets read about 4 AI and Analytics trends to watch for in 2020-2021 1. Conversational UI Conversational UI is a step ahead from pre-fed and templated chatbots. Here, you actually make a UI that talks to users with human language. It allows users to tell a computer what it needs. Within conversational UI, there is written communication where you would type in a chatbox and voice assistant that facilitate oral communication. We could see more focus on voice assistants in the future. For example, we are already experiencing a significant improvement in the “social” skills of Crotona, Siri, and OK Google.   2. 3D Intelligent Graphs With the help of data visualization, insights are presented interactively to the users. It helps create logical graphs consisting of key data points. It provides an easy to use dashboard where data can be viewed to reach to the conclusion. It helps quickly grasp the overall pattern, understand the trend, and strike out elements that require attention. Such interactive, 3D graphs are increasingly used by online learning institutes to make learning interactive and fun. You will also see 3D graphs used by data scientists to formulate advanced algorithms. 3. Text Mining It is a form of Natural Language Processing that used AI to study phrases or text and detect underlying value. It helps organizations to segregate information from emails, social media posts, product feedbacks, and others. Businesses can leverage text mining to extract keywords, important topic names, or highlight the sentiment – positive, neutral, or negative. 4. Video and Audio Analytics This will become a new normal in the coming few years. Video Analytics is computer-supported facial recognition, gesture recognition used to get relevant and sensitive information from video and audios to reduce human efforts and enhance security. You can use it in parking assistance, traffic management, access authorization, among others. Can AI get CREEPY? There is a growing concern over breach of privacy by the unethical use of AI. Are the concerns far-fetched? Guess not! It is a known fact that some companies use advanced algorithms to track your details such as phone numbers, anniversaries, addresses, etc. However, some do not limit to the aforementioned data, foraying into our web-history, traveling details, shopping patterns, etc. Imagine your recent picture on Twitter or Facebook, which has a privacy setting activated used by a company to create your bio. This is undoubtedly creepy! Data teams should chalk down key parameters to acquire data and share information with the customers. Even if you have access to individual customer information like their current whereabouts, a favorite restaurant, or favorite team, one should refrain from using it while interacting with customers. It is your wisdom to diligently using customer data without intruding on their privacy. Inference Clearly, the importance of analytics and the use of AI for adding value to the process of data analysis is going up through 2020. With data operating in silos, most organizations are finding it difficult to manage, govern, and extract value out of their unstructured data. This will make them lose on a competitive edge. Therefore, we would experience a rise of data as a service that will instigate the onboarding of specialized data-oriented skills, finely grained business processes, and data-critical functions.

Aziro Marketing

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8 Steps To Foolproof Your Big Data Testing Cycle

Big Data refers to all the data that is generated across the globe at an unprecedented rate. This data could be either structured or unstructured. Comprehending this information and disentangling the different examples, uncovering the various patterns, and revealing unseen connections within the vast sea of data becomes critical and a massively compensating undertaking in reality. Better data leads to better decision making, and an improved way to strategize for organizations, irrespective of their size. The best ventures of tomorrow will be the ones that can make sense of all data at extremely high volumes and speeds to capture newer markets and client base.Why require Big Data Testing?With the presentation of Big Data, it turns out to be especially vital to test the enormous information framework with the utilization of suitable information accurately. If not tried appropriately, it would influence the business altogether; thus, automation becomes a key part of Big Data Testing. Enormous Data Testing whenever done inaccurately will make it extremely hard to comprehend the blunder, how it happened and the likely arrangement with alleviation steps could take quite a while along these lines bringing about mistaken/missing information, and adjusting it is again a colossal test so that present streaming information isn’t influenced. As information is critical, it is prescribed to have a relevant component with the goal that information isn’t lost/debased and proper mechanism should be used to handle failoversBig Data has certain characteristics and hence is defined using 4Vs, namely:Volume: is the measure of information that organizations can gather. It is huge and consequently, the volume of the information turns into a basic factor in Big Data Analytics.Velocity: the rate at which new information is being created, on account of our reliance on the web, sensors, machine-to-machine information is likewise imperative to parse Big Data conveniently.Variety: the information that is produced is heterogeneous; as in it could be in different types like video, content, database, numeric, sensor data and so on and consequently understanding the kind of Big Data is a key factor to unlocking its potential.Veracity: knowing whether the information that is accessible is originating from a believable source is of most extreme significance before unraveling and executing Big Data for business needs.Here is a concise clarification of how precisely organizations are using Big Data:When Big Data is transformed into pieces of data then it turns out to be quite direct for most business endeavors as it comprehends what their clients need, what items are quick moving, what are the desires for the clients from the client benefit, how to accelerate an opportunity to advertise, approaches to lessen expenses, and strategies to assemble economies of scale in an exceedingly productive way. Thus Big Data distinctively leads to big-time benefits for organizations and hence naturally there is such a huge amount of interest in it from all around the world.Testing Big Data:Source: Guru99.comLet us have a look at the scenarios for which Big Data Testing can be used in the Big Data components: –1. Data Ingestion: –This progression is considered as pre-Hadoop arrange where information is created from different sources and information streams into HDFS. In this progression, the analyzers check that information is removed legitimately and information is stacked into HDFS.Ensure appropriate information from different sources is ingested; for example, every required datum is ingested according to its characterized mapping; and information with non-coordinating pattern is not to be ingested. Information which has not coordinated with diagram ought to be put away for details stating the reason.Comparison of source data with data ingested to simply validate that correct data is pushed.Verify that correct data files are generated and loaded into HDFS correctly into desired location.2. Data Processing: –This progression is utilized for approving Map-Reduce employments. Map-Reduce is a concept used for condensing large amount of data into aggregated data. The information ingested is handled utilizing execution of Map-Reduce employments which gives wanted outcomes. In this progression, the analyzer confirms that ingested data is prepared utilizing Map-Reduce employments and approve whether business rationale is actualized accurately.Data Storage: –This progression is utilized for putting away yield information in HDFS or some other stockpiling framework, (for example, Data Warehouse). In this progression the analyzer checks that yield information is effectively produced and stacked into capacity framework.Validate information is amassed post Map-Reduce Jobs.Verify that right information is stacked into capacity framework and dispose of any middle of the road information which is available.Verify that there is no information defilement by contrasting yield information and HDFS (or any capacity framework) information.The other types of testing scenarios a Big Data Tester can do is: –4. Check whether legitimate ready instruments are actualized, for example, Mail on alarm, sending measurements on Cloud watch and so forth.5. Check whether exceptions or mistakes are shown legitimately with suitable special case message so tackling a blunder turns out to be simple.6. Performance testing to test the distinctive parameters to process an arbitrary lump of vast information and screen parameters, for example, time taken to finish Map-Reduce Jobs, memory use, circle use and different measurements as required.7. Integration testing for testing complete work process specifically from information ingestion to information stockpiling/representation.8. Architecture testing for testing that Hadoop is exceptionally accessible all the time and failover administrations are legitimately executed to guarantee information is handled even if there should arise an occurrence of disappointment of hubs.Data Storage – HDFS (Hadoop Distributed File System), Amazon S3, HBase.Note: – For testing it is very important to generate data that covers various test scenarios (positive and negative). Positive test scenarios cover scenarios which are directly related to the functionality. Negative test scenarios cover scenarios which do not have direct relation with the desired functionality.Tools used in Big Data TestingData Ingestion – Kafka, Zookeeper, Sqoop, Flume, Storm, Amazon Kinesis.Data Processing – Hadoop (Map-Reduce), Cascading, Oozie, Hive, Pig.

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Role of Apache Cassandra in the CAP theorem

Have you heard of Cassandra? Wikipedia describes her quite aptly:“Apache Cassandra is a free and open-source distributed NoSQL database management system designed to handle large amounts of data across many commodity servers, providing high availability with no single point of failure.“Ideal for high scalability without compromising on performance, Cassandra is the perfect database platform for mission-critical data.This blog guides engineers to understand what Cassandra is, how Cassandra works, why do we need Cassandra in our applications, and how to use the features and capabilities of Apache Cassandra.Basics FirstThere is a very famous theorem (CAP Theorem) in the Database world, which still proves and states that it is impossible for a distributed computer system to simultaneously provide all three of the following guarantees:Consistency – which means that data should be same in all the nodes in the cluster. If the user reads/writes from any node, the user should get the same data.Availability – which means at any point in time, the database should be accessible for read/write and there should not be any downtime in accessing the database.Partition Tolerance – which means that in a distributed system, the cluster continues to function even if there is a communications breakdown between two nodes. In this case, nodes are up in the cluster but not able to communicate between them but still it should work as expected.According to this theorem, a distributed system cannot satisfy all three of these guarantees at the same time. To be frank, this theorem says you can either have CA or CP or AP in any of the databases.Well, imagine if you are able to create a new database system, which supports CAP! That would be a priceless innovation in the database world and very lucrative indeed.Where Cassandra fits in CAP?Firstly, Cassandra is a database and It is classified as AP in the CAP. So this is a database which focuses or providing importance to Availability and Partition tolerance.But believe me, the beautiful feature of this database is we can tune and make this database to also meet Consistency. That surely hikes up the curiosity in IT folks. I will come to that soon.What is NoSQL?Having reasonable working experience in NoSQL databases, I can assure you that NoSQL is still a ‘buzzword’ in the database world.For easy understanding, I would like to list what people say about NoSQL and my opinion on it,NoSQL is vertically scalable – AgreedNoSQL violates ACID principle – Not all NoSQL databases, I would say it depends on the database since most of it partially supports ACID. (i.e) Mongo, HBase and sometimes Cassandra supports 100 % Durability, Mongo and HBase support row-level locking etc., But of course there is no concept of Transaction in the NoSQL databasesNoSQL is a key-value store Architecture – Perfect. That is the core concept of NoSQL. It supports faster write and readNoSQL is for Big Data – AgreedYes, all these denote NoSQL in the database world – it violates ACID, having key-value store structure definitely violates the core principle and concepts of relational databases and this is why it is also called as Not only SQL. I would say that NoSQL sacrifices these principles and concepts to provide the performance and data scalability.NoSQL says take care of ACID in your client code and as a compromise for it, I will provide the performance.Coming to CassandraCassandra is a NoSQL database and it is not a Master-Slave database. So which means all the nodes in the Cassandra are same. It is a peer-to-peer distributed database so it has the masterless architecture. (P.S. Throughout this blog, NODE denotes Cassandra node)Masterless ArchitectureIn other Master-Slave databases like MongoDB or HBase, there will be a downtime if the Master goes down and we need to wait for the next Master to come up. That’s not the case in Cassandra. It has no special nodes i.e. the cluster has no masters, no slaves or elected leaders. This enables Cassandra to be highly available while having no single point of failure. This is the reason it supports ‘A’ in CAP.As mentioned it is a distributed database system which means a single logical database is spread across a cluster of nodes and thus the need to spread data evenly amongst all participating nodes. Cassandra stores data by dividing data evenly across its cluster of nodes. Each node is responsible for part of the data. This is how it is able to support ‘P’ in CAP. So it is a database which supports AP.This answers the question why we need Cassandra in our application. Applications that demand zero downtime need a masterless architecture and that’s where Cassandra drives the value. In simple words, Write and Read can happen from any node in the cluster at any point in time. The below example shows the sample cluster formation in Cassandra for 5 node setup.Better ThroughputAnother highlight of Cassandra is that it can provide better workload performance with the increasing number of nodes. The below diagram demonstrates this in a better way.As per Cassandra, if two nodes can handle 100K transactions per second, then 4 nodes can handle 200K transactions per second and the strength multiplies so on.The buck does not stop here. There is definitely more to Cassandra and one can keep exploring to learn more.

Aziro Marketing

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How big data benefits Business intelligence

Big data is a big phenomenon—one that can overwhelm you in an unimaginably large scale. With the progress of technology firms through the Internet, it has become quite apparent that big data would have importance beyond all scales.The term big data is applied to unstructured, highly complex collection of data that warrants special processing technologies. It simply cannot be processed like regular data that you are familiar with. Today’s organizations are increasingly looking for ways to uncover actionable insights, correlations, and hidden patterns from hoards of data lying around. Organizations such as Google, Facebook, and Microsoft have immense stores of big data and they use specific analytics tools to make sense of them. BI and Big Data Over the past few decades enterprises saw a gradual evolution of data management technologies from OLTP (Online Transaction Processing) to data warehousing and business intelligence. The latest trend in this data management technologies may be big data. Almost every large enterprise is using big data in its business advancement environments. Business intelligence accelerates major business decisions made by IT organizations today. Enterprises today store transactional data on big data warehouses and make use of this data for various analysis purposes. Although the business intelligence tools have existed for quite a while in the enterprises, the tools and technologies for BI requires a revisit to accommodate one of the biggest changes that happened in the IT organizations today—advent of big data. How does Big Data Benefit Business Intelligence? Big data comes with some heavy advantages that can transform businesses completely. Some of them are: Highly scalable: While the traditional DataStack platform is unable to scale to heavy workloads, big-data-based platform can scale almost infinitely. Cost savings: Most of the big data platforms are coming with open-source licensing options. Cost of ownership, hence, is significantly less with big data BI architecture. MapReduce: Programming interface MapReduce provides powerful custom data management and processing capabilities. Unstructured data support: One major advantage of big data is that it supports structured, semi-structured, an unstructured data elements. Conclusion Enterprises should leverage big data for enterprise business intelligence by incorporating them in the existing BI architecture. The advantages of doing this has been discussed at length already. Also, the cost for doing this may be well justified when you reap the myriad business benefits. Aziro (formerly MSys Technologies) solves complex big data challenges for global enterprises. As one of the leading Big Data Service Providers, Aziro (formerly MSys Technologies) supports clients in refining their big data strategy by choosing the right tools, technologies and processes that help achieve strategic objectives. Our vendor-neutral Big Data Analytics solutions are tailored to customer’s current technology landscape, preferences and objectives. We enable enterprises to establish a well-defined modern architecture, which yields greater efficiency in their day-to-day processes. Our expertise in Hadoop-based platforms, MPP databases, cloud storage systems and other emerging technologies help organizations harness the power of big data to improve business outcomes.

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Icinga Eyes for Big Data Pipelines: Explained in Detailed

In the plethora of monitoring tools, ranging from open source to paid, it is always a difficult choice to decide which one to go for. This problem becomes more difficult when types of entities which are to be monitored are large and the ways of monitoring are diverse. The various possible entities which are monitored range from low level devices like switches, routers to physical and virtual machines to Citrix XenApp and XenDesktop environments. Some of the available ways of monitoring can be SNMP, JMX, SSH, Netflow, WMI and RRD metrics depending on the device which we want to keep an eye on.With the “ * as code ” terminology coming into the software industry, people have started moving their deployments and configurations as code blocks which are easy to scale, flexible for changes and effortless to maintain. Infrastructure monitoring wasn’t able to keep itself unaffected from this paradigm and evolution of “Monitoring as a Code” came into existence. Icinga is one such tool.Icinga was a fork of Nagios, which is a pioneer in network monitoring, but Icinga has diverged itself into Icinga2 and added various performance and clustering capabilities. Synchronizing with its name “Icinga”, which means ‘it looks for’ or ‘it examines’, is one of the best open source tools available for monitoring of wide variety of devices. Installation is pretty straightforward and requires installing icinga2 package on both master and clients.( yum install icinga2 )All communications between Icinga2 master and clients are secure. On running the node wizard the CSR is generated and for auto signing it, a ticket is required which is obtained by running pki ticket command on client. Icinga Master setup will also require installing and configuring icingaweb2, which provides an appealing monitoring dashboard.( icinga2 node wizard, icinga2 pki ticket –cn )Figure 1: Pluggable ArchitectureMonitoring tools like Icinga follow a pluggable architecture(Figure 1). The tool acts like a core framework in which plugins are glued for enhancing capabilities of core by expanding its functionalities. Installing a plugin for an application gives Icinga ability to monitor the metrics for that specific application. Because of this pluggable architecture, these tools are able to satisfy monitoring requirements of myriad of possible applications. For instance, Icinga have plugins for Graphite and Grafana for showing the graphs for various metrics. On the other hand, it also has integrations with Incident Management tools like OpsGenie and Pagerduty. Basic plugins for monitoring could be installed using:yum install nagios-plugins-alIcinga2 Distributed Monitoring in high availability clustered arrangement can be visualized from Figure 2. Clients run their preconfigured checks or get commands execution events from master/satellite. Master is at core of monitoring and provides icingaweb2 UI. Satellite is similar to master and can run even if master is down and can update master when it is available again. This prevents monitoring outage for entire infrastructure in case of unavailability of master temporarily.Figure 2: Icinga2 Distributed Monitoring with HATypical big data pipeline consists of data producers, messaging systems, analyzers, storage and user interface.Figure 3: Typical Big Data PipelineMonitoring any big data pipeline can be bifurcated mainly into two fields: system metrics and application metrics where metrics is nothing but any entity which varies over time. System metrics comprises of information about CPU, disk and memory i.e. health of a host on which one of the Big Data element is running. Whereas application metrics dives into specific parameters of an application which helps in weighing its performance. Most of the applications can be monitored remotely as they are reachable over REST or JMX. These applications need not install Icinga client for monitoring application metrics. But for system metrics and monitoring those application which do not fall in JMX/REST category, client installation is required.Everything is an object in Icinga; be it a command, a host or a service. Kafka and Spark expose JMX metrics. They can be monitored, using check_jmx command. Let’s consider an example of monitoring a spark metric. The configurations would look like this.object Host "spark" {  import "generic-host"  address = "A.B.C.D" } object CheckCommand "check_jmx" {  import "plugin-check-command"  command = [ PluginDir + "/check_jmx" ]  arguments = {    "-U" = "$service_url$"    "-O" = "$object_name$"    "-A" = "$attrib_name$"    "-K" = "$comp_key$"    "-w" = "$warn$"    "-c" = "$crit$"    "-o" = "$operat_name$"    "--username" = "$username$"    "--password" = "$password$"    "-u" = "$unit$"    "-v" = "$verbose$"  } } apply Service "spark_alive_workers" {  import "generic-service"  check_command = "check_jmx"  vars.service_url = "service:jmx:rmi:///jndi/rmi://" + host.address + ":10105/jmxrmi"  vars.object_name = "metrics:name=master.aliveWorkers"  vars.attrib_name = "Value"’  assign where host.address }The Icinga folder hierarchy inside parent directory is not specific (/etc/icinga2/conf.d) and could be steered according to our requirements and convenience. But all *.conf files are read and processed. Elasticsearch gives REST access. Adding objects and services similar to the above example and changing the command to check_http (and related changes), we will be able to monitor ES cluster’s health. The command which will be fired at every tuned interval will look something like this.check_http -H A.B.C.D -u /_cluster/health -p 9200 -w 2 -c 3 -s greenSimilarly, Icinga/ Nagios plugins are available for various NoSQL databases (MongoDB).These configurations look very daunting and they become more threatening when one has to deal with large number of hosts that are also running variety of applications. That’s where Icinga2 Director comes handy. It provides an abstraction layer in which creating templates for commands, services and hosts are possible from UI and then those templates could be applied to hosts easily. In the absence of Director, configurations need to be manually done on each client which is to be monitored. Director offers a top down approach, i.e. by changing service template for a new service and just clicking deploy configuration, it enables new service at all hosts without incurring the trouble of going to every node.

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A Beginner’s Guide to Complete Analysis of Apache Spark RDDs and Java 8 Streams

1. What is Apache Spark RDD? Apache Spark RDD stands for Resilient Distributed Datasets. RDD is a fault tolerant, immutable collection of elements which can be operated on, in parallel. We can perform various parallel operations on them such as map, reduce, filter, count, distinct etc. We can persist them in local memory and perform these operations on them. RDDs can be created in two ways: A. parallelize(): calling a parallelize method on the existing collection in our program (pass collection object to the method). JavaRDD javaRDD = sparkContext.parallelize(Arrays.asList(1, 2, 3, 4, 5)); B. textFile(): calling textFile method by passing the path of the file at local or shared file system (pass file URI to the method). JavaRDD lines = sparkContext.textFile("URI/to/sample/file.txt"); Both methods are called using the reference of JavaSparkContext class. There are two types of operations that can be performed on RDDs: Transformations: which perform some operations on RDD to return an RDD (map). Actions: which return a value after performing the operation (reduce). Consider the following example of map and reduce to calculate the total length of the lines in the file, using JavaRDDs: JavaRDD lines = sc.textFile("URI/to/sample/file.txt"); JavaRDD lengths = lines.map(l -> l.length()); int totalLength = lengths.reduce((a, b) -> a + b); 2. What is Java 8 Streams API? Java Stream API sounds similar to InputStream and OutputSream in Java IO, but it is completely different, so let’s not get confused. Streams are specifically introduced in Java 8 to ease functional programming. Java Streams are Monads, a structure that represents computations as a chain of steps. Streams are the Java APIs that let you manipulate the collections. You can chain together multiple Stream operations to achieve a complex data processing pipeline. With Streams API, you can write the code that’s Declarative: More concise as well as readable Composable: Greater flexibility Parallelizable: Better performance (using Parallel Streams) Streams can also be created the same way as Spark RDDs A. Collections as well as Arrays: List strings = Arrays.asList("abc", "", "bc", "efg", "abcd","", "jkl"); //get count of empty string int count = strings.parallelStream().filter(string -> string.isEmpty()).count(); B. File Systems: Stream stream = Files.lines(Paths.get("URI/to/sample/file.txt"); Like RDDs Streams, operations are also of two types: Intermediate (like Transformations): which performs some operations on Stream to return a Stream (map). Terminal: which returns a value after performing the operation or can be void (reduce, foreach). Stream lines = Files.lines(Paths.get("URI/to/sample/file.txt"); Stream lineLengths = lines.map(s -> s.length()); int totalLength = lineLengths.reduce(0, (a, b) -> a + b); Streams accept Lambda Expression as a parameter, which is a functional interface that specifies the exact behavior of the operation. The intermediate operations are executed only when the terminal operation is called over them. Once a terminal operation is called over a Stream, we cannot reuse it. If we want to use any intermediate operation of a Stream, we have to create a Stream Supplier which constructs a new Stream with the intermediate operations. The supplier provides get() method to fetch the desired intermediate Stream operation that is already saved. 3. What Can We Do with Spark RDD? To perform very fast computations over a shared data set such as iterative distributed computing, we need to have an excellent data sharing architecture. This involves processing data using multiple ad-hoc queries and sharing and reusing of data among multiple jobs. To perform these operations, we need to have a mechanism that stores the intermediate data over a distributed data store which may lead to slower processing due to multiple IO operations. RDDs help us do such operations by breaking the computations into small tasks which run on separate machines. We can cache these RDDs into our local discs to use them in other actions. This helps to execute the future actions much faster. persist() or cache() methods help us keep the computed RDDs in the memory of the nodes. Following properties make RDDs perform best for iterative distributed computing algorithms like K-means clustering, page rank, Logistic regression etc: Immutable Partitioned Fault tolerant Created by coarse grained operations Lazily evaluated Can be persisted More importantly, all the Transformations in RDDs are lazy, which means their result is not calculated right away. The results are just remembered and are computed just when they are actually needed by the driver program. The Actions, on the other hand are eager. 4. What Can We Do with Java 8 Streams API? Stream APIs (and of course Lambdas) were introduced in Java 8 considering parallelism as the main driving force. Streams help to write the complex code in concise way which is more readable, flexible and understandable. Streams can be created from various data sources, like Collections, Arrays, and file resources. Streams are of two types: Sequential and Parallel Streams. We can perform distributed computing operations using multiple threads using Streams. Parallel Streams can be used to boost the performance of Streams when there is a large amount of input data. Like RDDs, we have methods like map, reduce, collect, flatMap, sort, filter, min, max, count etc. in Streams. Consider a list of fruits: List fruits = Arrays.asList("apple", "orange", "pineapple", "grape", "banana", "mango", “blackberry”); Filter() fruits.filter( fruit -> fruit.startsWith("b") ); Map() fruits.map( fruit -> fruit.toUpperCase() ) Collect() List filteredFruits = fruits.filter( fruit -> fruit.startsWith("b") ) .collect(Collectors.toList()); Min() and Max() String shortest = fruits.min(Comparator.comparing(fruit -> fruit.length())).get(); Count() long count = fruits.filter( fruit -> fruit.startsWith("b")).count(); Reduce() String reduced = fruits.filter( item -> item.startsWith("b")) .reduce("", (acc, item) -> acc + " " + item); 5. How Are They Same? RDDs and Streams can be created the same way: from Collections and File Systems. RDDs and Streams perform two (same) types of operations: Transformations in RDDs == Intermediate in Streams Actions in RDDs == Terminal in Streams Transformations (RDDs) and Intermediate (Streams) have the same important characteristic i.e. Laziness. They just remember the transformations instead of computing them unless an Action is needed.While Actions (RDDs) and Terminal (Streams) operations are eager Operations. RDDs and Streams help in reducing the actual number of operations performed over each element as both use Filters and Predicates. Developers can write much concise code using RDDs and Streams. RDDs and (parallel) Streams are used for parallel distributed operations where a large number of data processing is required. Both RDDs and Streams work on the principle of Functional Programming and use lambda Expressions as parameters. 6. How Are They Different? Unlike RDDs, Java 8 Streams are of two types: Sequential and Parallel. Parallelization is just a matter of calling parallel() method in Streams. It internally utilizes the Thread Pool in JVM, while Spark RDDs can be distributed and deployed over a cluster. While Spark has different storage levels for different purposes, Streams are in memory data structures. When you call parallelize method in Streams, your data is split into multiple chunks and they are processed independently. This process is CPU intensive and utilizes all the available CPUs. The Java parallel Streams use a common ForkJoinPool. The capacity of this ThreadPool to use Threads depends on the number of available CPU cores. This value can be increased or decreased using the following JVM parameter, -Djava.util.concurrent.ForkJoinPool.common.parallelism=5 So for executing the parallel Stream operations the Stream utilizes all the available threads in the ThreadPool. Moreover, if you submit a long running task, this could result in blocking all the other threads in the ThreadPool. One long task could result into blocking of entire application. 7. Which One Is Better? When? Though RDDs and Streams provide quite similar type of implementations, APIs and functionalities, Apache Spark is much more powerful than Java 8 Streams. While it’s completely our choice what to use when, we should always try to analyze our requirements and proceed for the implementations. As parallel Streams use a Common Thread Pool, we must ensure that there won’t be any long running task which will cause other threads to stuck. Apache Spark RDDs will help you distribute the data over cluster. When there are such complex situations which involve a real huge amount of data and computations, we should avoid using Java 8 Streams. So for non-distributed parallel processing my choice would be to go with Streams, while Apache Spark RDDs would be preferable for real time analytics or continuously streaming data over distributed environments.

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Advanced Log Analytics for Better IT Management

Aziro (formerly MSys Technologies) Advanced Log AnalyticsAziro (formerly MSys Technologies)’ lab is developing a Log Analytics tool which will collect logs, store the logs and do the analytics on the log data. The Log Analytics tool will be part of “Total Digital Transformation” application. The “Total Digital transformation” is achieved through Dev-Ops, Continuous Integration, Continuous Delivery and Analytics. Log Analytics will ensure Digital Transformation is successful and effective.Today Devops has transformed IT operations and IT Deployment. Now Analytics will transform DevOps and IT operations. DevOps – with Big Data analytics and machine learning key components of a successful IT operations. IT Managers and IT System admins will use powerful analytics and deeper insights at their fingertips to make effective business decisions.Need for Log AnalyticsOne of the biggest hurdles in restoring service for a crashed application is to wade through the log files and identify the reason(s) for application failure.Today many applications are getting deployed on many servers and in shorter time. The task of managing these applications and IT infrastructure is becoming complex and time-consuming. In case of business critical applications, any application down time results in loss of business and results in many escalations. Now it is possible to implement an analytics solution that can help in reducing the time needed to identify problems as and when they occur.Initially, the Log Analytics will be used to raise alerts, sending email and/or creating tickets. The next step is to create a Log Analytic solution that can predict, with confidence, the occurrence of events of significance. Finally Log Analytics will have Predictive Analytics that has ability to identify and predict failures before they occur.Advanced Log Analytics for Better IT ManagementAziro (formerly MSys Technologies) has deep expertise in Log Analytics capabilities. Mys is building a Log Analytics using ELK stack of tools, where E stands for Elasticsearch, L stands for Logstash (log parser) and K stands for Kibana (visualization).Elasticsearch, an open-source search engine is built on top of Apache Lucene™. It is a full-text search-engine library. Lucene is a complex, advanced, high-performance, and fully featured search engine library. Elasticsearch uses Lucene internally for all of its indexing and searching, but aims to make full-text search easy by hiding Lucene’s complexities behind a simple, coherent, RESTful API. Elasticsearch also supports the following features.ELK :A distributed real-time document store where every field is indexed and searchableA distributed search engine with real-time analyticsIt is capable of scaling to hundreds of servers and petabytes of structured and unstructured data

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How to classify Product Catalogue Using Ensemble

The Problem StatementThe Otto Product Classification Challenge was a competition hosted on Kaggle, a website dedicated to solving complex data science problems. The purpose of this challenge was to classify products into correct category, based on their recorded features.DataThe organizers had provided a training data set containing 61878 entries, and a test data set that had 144368 entries. The data contained 93 features, based on which the products had to be classified. The target column in the training data set indicated the category of the product. The training and test data sets are available for download here. A sample of training data set can be seen in the figure 1.Solution ApproachThe features in the training data set had a large variance. Anscombe transform on the features reduced the variance. In the process, it also transformed the features from an approximately Poisson distribution into an approximately normal distribution. Rest of the data was pretty clean, and thus we could use it directly as input to the classification algorithm. For classification, we tried two approaches { one was using the xgboost algorithm, and other using the deeplearning algorithm through h2o. xgboost is an implementation of extreme gradient boosting algorithm, which can be used effectively for classification.Figure 1: Sample DataAs discussed in the TFI blog, The gradient boosting algorithm is an ensemble method based on decision trees. For classification, at every branch in the tree, it tries to eliminate a category, to finally have only one category per leaf node. For this, it needs to build trees for each category separately. But since we had only 9 categories, we decided to use it. The deep learning algorithm provided by h2o is based on a multi-layer neural network. It is trained using a variation of gradient descent method. We used multi-class logarithmic loss as the error metric to find a good model, as this was also the model used for ranking by Kaggle.Building the ClassifierInitially, we created a classifier using xgboost. The xgboost configuration for our best submission is as below: param   list(`objective' = `multi:softprob', `eval metric' = `mlogloss', `num class' = 9, `nthread' = 8, `eta'= 0.1, `max depth' = 27, `gamma' = 2, `min child weight' = 3, `subsample' = 0.75, `colsample bytree' = 0.85) nround = 5000 classi er = xgboost(param=param, data = x, label = y, nrounds=nround) Here, we have specified our objective function to be multi:softprob’. This function returns the probabilities for a product being classified into a specific category. Evaluation metric, as specified earlier, is the multiclass logarithmic loss function. The eta’ parameter shrinks the priors for features, thus making the algorithm less prone to overfitting. The parameter usually takes values between 0:1 to 0:001. The max depth’ parameter will limit the height of the decision trees. Shallow trees are constructed faster. Not specifying this parameter lets the trees grow as deep as required. The min child weight’ controls the splitting of the tree. The value of the parameter puts a lower bound on the weight of each child node, before it can be split further. The subsample’ parameter makes the algorithm choose a subset of the training set. In our case, it randomly chooses 75% of the training data to build the classifier. The colsample bytree’ parameter makes the algorithm choose a subset of features while building the tree, in our case to 85%. Both subsample’ as well as colsample bytree’ help in preventing over t. The classier was built by performing 5000 iterations over the training data set. These parameters were tuned by experimentation, by trying to minimize the log-loss error. The log-loss error on public leader board for this configuration was 0.448.We also created another classifier using the deep-learning algorithm provided by h2o. The configuration for this algorithm was as follows:classi cation=T, activation=`Recti erWithDropout', hidden=c(1024,512,256), hidden dropout ratio=c(0.5,0.5,0.5), input dropout ratio=0.05, epochs=50, l1=1e-5, l2=1e-5, rho=0.99, epsilon=1e-8, train samples per iteration=4000, max w2=10, seed=1 This configuration creates a neural network with 3 hidden layers, each with 1024, 512 and 256 neurons respectively. This is specified using the `hidden’ parameter. The activation function in this case is Rectifier with Dropout. The rectifier function filters negative inputs for each neuron. Dropout lets us randomly drop inputs to the hidden neuron layers. Dropout builds better generalizations. The hidden_dropout _ratio specifies the percentage of inputs to hidden layers to be dropped. The input dropout ratio specifies the percentage of inputs to the input layer to be dropped. Epochs define the number of training iterations to be carried out. Setting train samples per iteration makes the algorithm choose subset of training data. Setting l1 and l2 scales the weights assigned to each feature. l1 reduces model complexity, and l2 introduces bias in estimation. Rho and Epsilon together slow convergence. The max w2 function sets an upper limit on the sum of squared incoming weights into a neuron. This needs to be set for rectifier activation function. Seed is the random seed that controls sampling. Using these parameters, we performed 10 iterations of deep learning, and submitted the mean of the 10 results as the output. The log-loss error on public leaderboard for this con figuration was 0.448.We then merged both the results by taking a mean, and that resulted in the top 10% submission, with a score of 0.428.ResultsSince the public leaderboard evaluation was based on 70% of the test data, the public leaderboard rank was fairly stable. We submitted the best two results, and our rank remained in the top 10% at the end of final evaluation. Overall, it was a good learning experience.What We LearntRelying on results of one model may not give the best possible result. Combining results of various approaches may reduce the error by significant margin. As can been seen here, the winning solution in this competition had a much more complex ensemble. Complex ensembles may be the way ahead for getting better at complex problems like classification.

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