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An Opinionated Guide to Technology Frontiers
TECHNOLOGY RADARVOL. 21 An opinionated guide to technology frontiers thoughtworks.com/radar #TWTechRadar Rebecca Martin Fowler Bharani Erik Evan Parsons (CTO) (Chief Scientist) Subramaniam Dörnenburg Bottcher Fausto Hao Ian James Jonny CONTRIBUTORS de la Torre Xu Cartwright Lewis LeRoy The Technology Radar is prepared by the ThoughtWorks Technology Advisory Board — This edition of the ThoughtWorks Technology Radar is based on a meeting of the Technology Advisory Board in San Francisco in October 2019 Ketan Lakshminarasimhan Marco Mike Neal Padegaonkar Sudarshan Valtas Mason Ford Ni Rachel Scott Shangqi Zhamak Wang Laycock Shaw Liu Dehghani TECHNOLOGY RADAR | 2 © ThoughtWorks, Inc. All Rights Reserved. ABOUT RADAR AT THE RADAR A GLANCE ThoughtWorkers are passionate about ADOPT technology. We build it, research it, test it, 1 open source it, write about it, and constantly We feel strongly that the aim to improve it — for everyone. Our industry should be adopting mission is to champion software excellence these items. We use them and revolutionize IT. We create and share when appropriate on our the ThoughtWorks Technology Radar in projects. HOLD ASSESS support of that mission. The ThoughtWorks TRIAL Technology Advisory Board, a group of senior technology leaders at ThoughtWorks, 2 TRIAL ADOPT creates the Radar. They meet regularly to ADOPT Worth pursuing. It’s 108 discuss the global technology strategy for important to understand how 96 ThoughtWorks and the technology trends TRIAL to build up this capability. ASSESS 1 that significantly impact our industry. Enterprises can try this HOLD 2 technology on a project that The Radar captures the output of the 3 can handle the risk. -
LIST of NOSQL DATABASES [Currently 150]
Your Ultimate Guide to the Non - Relational Universe! [the best selected nosql link Archive in the web] ...never miss a conceptual article again... News Feed covering all changes here! NoSQL DEFINITION: Next Generation Databases mostly addressing some of the points: being non-relational, distributed, open-source and horizontally scalable. The original intention has been modern web-scale databases. The movement began early 2009 and is growing rapidly. Often more characteristics apply such as: schema-free, easy replication support, simple API, eventually consistent / BASE (not ACID), a huge amount of data and more. So the misleading term "nosql" (the community now translates it mostly with "not only sql") should be seen as an alias to something like the definition above. [based on 7 sources, 14 constructive feedback emails (thanks!) and 1 disliking comment . Agree / Disagree? Tell me so! By the way: this is a strong definition and it is out there here since 2009!] LIST OF NOSQL DATABASES [currently 150] Core NoSQL Systems: [Mostly originated out of a Web 2.0 need] Wide Column Store / Column Families Hadoop / HBase API: Java / any writer, Protocol: any write call, Query Method: MapReduce Java / any exec, Replication: HDFS Replication, Written in: Java, Concurrency: ?, Misc: Links: 3 Books [1, 2, 3] Cassandra massively scalable, partitioned row store, masterless architecture, linear scale performance, no single points of failure, read/write support across multiple data centers & cloud availability zones. API / Query Method: CQL and Thrift, replication: peer-to-peer, written in: Java, Concurrency: tunable consistency, Misc: built-in data compression, MapReduce support, primary/secondary indexes, security features. -
STUDY and SURVEY of BIG DATA for INDUSTRY Surbhi Verma*, Sai Rohit
ISSN: 2277-9655 [Verma* et al., 5(11): November, 2016] Impact Factor: 4.116 IC™ Value: 3.00 CODEN: IJESS7 IJESRT INTERNATIONAL JOURNAL OF ENGINEERING SCIENCES & RESEARCH TECHNOLOGY STUDY AND SURVEY OF BIG DATA FOR INDUSTRY Surbhi Verma*, Sai Rohit DOI: 10.5281/zenodo.166840 ABSTRACT Now-a-days we rarely observe any company or any industry who don’t have any database. Industries with huge amounts of data are finding it difficult to manage. They all are in search of some technology which can make their work easy and fast. The primary purpose of this paper is to provide an in-depth analysis of different platforms available for performing big data over local data and how they differ with each other. This paper surveys different hardware platforms available for big data and local data and assesses the advantages and drawbacks of each of these platforms. KEYWORDS: Big data, Local data, HadoopBase, Clusterpoint, Mongodb, Couchbase, Database. INTRODUCTION This is an era of Big Data. Big Data is making radical changes in traditional data analysis platforms. To perform any kind of analysis on such huge and complex data, scaling up the hardware platforms becomes imminent and choosing the right hardware/software platforms becomes very important. In this research we are showing how big data has been improvising over the local databases and other technologies. Present day, big data is making a huge turnaround in technological world and so to manage and access data there must be some kind of linking between big data and local data which is not done yet. -
Table of Contents
Table of Contents Introduction and Motivation Theoretical Foundations Distributed Programming Languages Distributed Operating Systems Distributed Communication Distributed Data Management Reliability Applications Conclusions Appendix Distributed Operating Systems Key issues Communication primitives Naming and protection Resource management Fault tolerance Services: file service, print service, process service, terminal service, file service, mail service, boot service, gateway service Distributed operating systems vs. network operating systems Commercial and research prototypes Wiselow, Galaxy, Amoeba, Clouds, and Mach Distributed File Systems A file system is a subsystem of an operating system whose purpose is to provide long-term storage. Main issues: Merge of file systems Protection Naming and name service Caching Writing policy Research prototypes: UNIX United, Coda, Andrew (AFS), Frangipani, Sprite, Plan 9, DCE/DFS, and XFS Commercial: Amazon S3, Google Cloud Storage, Microsoft Azure, SWIFT (OpenStack) Distributed Shared Memory A distributed shared memory is a shared memory abstraction what is implemented on a loosely coupled system. Distributed shared memory. Focus 24: Stumm and Zhou's Classification Central-server algorithm (nonmigrating and nonreplicated): central server (Client) Sends a data request to the central server. (Central server) Receives the request, performs data access and sends a response. (Client) Receives the response. Focus 24 (Cont’d) Migration algorithm (migrating and non- replicated): single-read/single-write (Client) If the needed data object is not local, determines the location and then sends a request. (Remote host) Receives the request and then sends the object. (Client) Receives the response and then accesses the data object (read and /or write). Focus 24 (Cont’d) Read-replication algorithm (migrating and replicated): multiple-read/single-write (Client) If the needed data object is not local, determines the location and sends a request. -
Learning Key-Value Store Design
Learning Key-Value Store Design Stratos Idreos, Niv Dayan, Wilson Qin, Mali Akmanalp, Sophie Hilgard, Andrew Ross, James Lennon, Varun Jain, Harshita Gupta, David Li, Zichen Zhu Harvard University ABSTRACT We introduce the concept of design continuums for the data Key-Value Stores layout of key-value stores. A design continuum unifies major Machine Databases K V K V … K V distinct data structure designs under the same model. The Table critical insight and potential long-term impact is that such unifying models 1) render what we consider up to now as Learning Data Structures fundamentally different data structures to be seen as \views" B-Tree Table of the very same overall design space, and 2) allow \seeing" Graph LSM new data structure designs with performance properties that Store Hash are not feasible by existing designs. The core intuition be- hind the construction of design continuums is that all data Performance structures arise from the very same set of fundamental de- Update sign principles, i.e., a small set of data layout design con- Data Trade-offs cepts out of which we can synthesize any design that exists Access Patterns in the literature as well as new ones. We show how to con- Hardware struct, evaluate, and expand, design continuums and we also Cloud costs present the first continuum that unifies major data structure Read Memory designs, i.e., B+tree, Btree, LSM-tree, and LSH-table. Figure 1: From performance trade-offs to data structures, The practical benefit of a design continuum is that it cre- key-value stores and rich applications. -
Mergers in the Digital Economy
2020/01 DP Axel Gautier and Joe Lamesch Mergers in the digital economy CORE Voie du Roman Pays 34, L1.03.01 B-1348 Louvain-la-Neuve Tel (32 10) 47 43 04 Email: [email protected] https://uclouvain.be/en/research-institutes/ lidam/core/discussion-papers.html Mergers in the Digital Economy∗ Axel Gautier y& Joe Lamesch z January 13, 2020 Abstract Over the period 2015-2017, the five giant technologically leading firms, Google, Amazon, Facebook, Amazon and Microsoft (GAFAM) acquired 175 companies, from small start-ups to billion dollar deals. By investigating this intense M&A, this paper ambitions a better understanding of the Big Five's strategies. To do so, we identify 6 different user groups gravitating around these multi-sided companies along with each company's most important market segments. We then track their mergers and acquisitions and match them with the segments. This exercise shows that these five firms use M&A activity mostly to strengthen their core market segments but rarely to expand their activities into new ones. Furthermore, most of the acquired products are shut down post acquisition, which suggests that GAFAM mainly acquire firm’s assets (functionality, technology, talent or IP) to integrate them in their ecosystem rather than the products and users themselves. For these tech giants, therefore, acquisition appears to be a substitute for in-house R&D. Finally, from our check for possible "killer acquisitions", it appears that just a single one in our sample could potentially be qualified as such. Keywords: Mergers, GAFAM, platform, digital markets, competition policy, killer acquisition JEL Codes: D43, K21, L40, L86, G34 ∗The authors would like to thank M. -
CURRICULUM FRAMEWORK and SYLLABUS for FIVE YEAR INTEGRATED M.Sc (DATA SCIENCE) DEGREE PROGRAMME in CHOICE BASED CREDIT SYSTEM
Five year Integrated M.Sc (Data Science) Degree Programme 2019-2020 CURRICULUM FRAMEWORK AND SYLLABUS FOR FIVE YEAR INTEGRATED M.Sc (DATA SCIENCE) DEGREE PROGRAMME IN CHOICE BASED CREDIT SYSTEM FOR THE STUDENTS ADMITTED FROM THE ACADEMIC YEAR 2019-2020 ONWARDS THIAGARAJAR COLLEGE OF ENGINEERING (A Government Aided Autonomous Institution affiliated to Anna University) MADURAI – 625 015, TAMILNADU Phone: 0452 – 2482240, 41 Fax: 0452 2483427 Web: www.tce.edu BOS Meeting Approved: 21-12-2018 Approved in 57th Academic Council meeting on 05-01-2019 Five year Integrated M.Sc (Data Science) Degree Programme 2019-2020 THIAGARAJAR COLLEGE OF ENGINEERING, MADURAI 625 015 DEPARTMENT OF APPLIED MATHEMATICS AND COMPUTATIONAL SCIENCE VISION “Academic and research excellence in Computational Science” MISSION As a Department, We are committed to Achieve academic excellence in Computational Science through innovative teaching and learning processes. Enable the students to be technically competent to solve the problems faced by the industry. Create a platform for pursuing inter-disciplinary research among the faculty and the students to create state of art research facilities. Promote quality and professional ethics among the students. Help the students to learn entrepreneurial skills. BOS Meeting Approved: 21-12-2018 Approved in 57th Academic Council meeting on 05-01-2019 Five year Integrated M.Sc (Data Science) Degree Programme 2019-2020 Programme Educational Objectives (PEO) Post graduates of M.Sc.(Data Science) program will be PEO1: Utilizing strong quantitative aptitude and domain knowledge to apply quantitative modeling and data analysis techniques to provide solutions to the real world business problems. PEO2: Applying research and entrepreneurial skills augmented with a rich set of communication, teamwork and leadership skills to excel in their profession. -
Mac Os X Database Application
Mac Os X Database Application Splashy Moses always degum his Politburo if Barr is unprovident or unswathing but. Corny Ashton enervating hinderingly or evite ergo when Weylin is faceless. Butcherly Maurits sometimes cognizes his alodiums hard and rebelled so submissively! New platform for the next section names of your data source you to It tedious really disappointing the heir that amount has been zero progress with this issue, could this time. Also many question are using databases on their Macs such as. Expert users may configure the ODBC. This application that you. Check the app from zero progress with a tabbed format of applications that this, transforming raw data! DBeaver Community Free Universal Database Tool. Provide the administrator username and password. You exhibit even export your bay as an html-table and print labels. Understanding at precious glance. Best Database Management Software for Mac 2021 Reviews. What does Texas gain for not selling electricity across state lines and therefore avoiding Federal Power and oversight? Take this open snaptube will get into chartable form at first mac os x application functioning of your experience with live without using app. Transform all kinds of files into optimized for various displays PDFs with water motion. However, four of the defining features of this crime is it it comes with native TLS encryption to ensure that important business success never gets into these wrong hands. Get stomp to legal one million creative assets on Envato Elements. Fuzzee allows to mac os application has been easier for free file to the appropriate odbc data synchronization tool. -
IDC Techscape IDC Techscape: Internet of Things Analytics and Information Management
IDC TechScape IDC TechScape: Internet of Things Analytics and Information Management Maureen Fleming Stewart Bond Carl W. Olofson David Schubmehl Dan Vesset Chandana Gopal Carrie Solinger IDC TECHSCAPE FIGURE FIGURE 1 IDC TechScape: Internet of Things Analytics and Information Management — Current Adoption Patterns Note: The IDC TechScape represents a snapshot of various technology adoption life cycles, given IDC's current market analysis. Expect, over time, for these technologies to follow the adoption curve on which they are currently mapped. Source: IDC, 2016 December 2016, IDC #US41841116 IN THIS STUDY Implementing the analytics and information management (AIM) tier of an Internet of Things (IoT) initiative is about the delivery and processing of sensor data, the insights that can be derived from that data and, at the moment of insight, initiating actions that should then be taken to respond as rapidly as possible. To achieve value, insight to action must fall within a useful time window. That means the IoT AIM tier needs to be designed for the shortest time window of IoT workloads running through the end- to-end system. It is also critical that the correct type of analytics is used to arrive at the insight. Over time, AIM technology adopted for IoT will be different from an organization's existing technology investments that perform a similar but less time-sensitive or data volume–intensive function. Enterprises will want to leverage as much of their existing AIM investments as possible, especially initially, but will want to adopt IoT-aligned technology as they operationalize and identify functionality gaps in how data is moved and managed, how analytics are applied, and how actions are defined and triggered at the moment of insight. -
Confidentiality and Perfomance for Cloud Databases
Research Collection Doctoral Thesis Confidentiality and Performance for Cloud Databases Author(s): Braun-Löhrer, Lucas Victor Publication Date: 2017 Permanent Link: https://doi.org/10.3929/ethz-a-010866596 Rights / License: In Copyright - Non-Commercial Use Permitted This page was generated automatically upon download from the ETH Zurich Research Collection. For more information please consult the Terms of use. ETH Library DISS. ETH NO. 24055 Confidentiality and Performance for Cloud Databases A thesis submitted to attain the degree of DOCTOR OF SCIENCES of ETH ZURICH (Dr. sc. ETH Zurich) presented by LUCAS VICTOR BRAUN-LÖHRER Master of Science ETH in Computer Science, ETH Zurich born on June 18, 1987 citizen of Aadorf, Thurgau accepted on the recommendation of Prof. Dr. Donald A. Kossmann, examiner Prof. Dr. Timothy Roscoe, co-examiner Prof. Dr. Renée J. Miller, co-examiner Prof. Dr. Thomas Neumann, co-examiner 2017 Typeset with LATEX © 2017 by Lucas Victor Braun-Löhrer Permission to print for personal and academic use, as well as permission for electronic reproduction and dissemination in unaltered and complete form are granted. All other rights reserved. Abstract The twenty-first century is often called the century of the information society. Theamount of collected data world-wide is growing exponentially and has easily reached the order of several million terabytes a day. As a result, everybody is talking about “big data” nowadays, not only in the research communities, but also very prominently in enterprises, politics and the press. Thanks to popular services, like Apple iCloud, Dropbox, Amazon Cloud Drive, Google Apps or Microsoft OneDrive, cloud storage has become a (nearly) ubiquitous and widely-used facility in which a huge portion of this big data is stored and processed. -
Mergers in the Digital Economy
2020/01 DP Axel Gautier and Joe Lamesch Mergers in the digital economy CORE Voie du Roman Pays 34, L1.03.01 B-1348 Louvain-la-Neuve Tel (32 10) 47 43 04 Email: [email protected] https://uclouvain.be/en/research-institutes/ lidam/core/discussion-papers.html Mergers in the Digital Economy∗ Axel Gautier y& Joe Lamesch z January 13, 2020 Abstract Over the period 2015-2017, the five giant technologically leading firms, Google, Amazon, Facebook, Amazon and Microsoft (GAFAM) acquired 175 companies, from small start-ups to billion dollar deals. By investigating this intense M&A, this paper ambitions a better understanding of the Big Five's strategies. To do so, we identify 6 different user groups gravitating around these multi-sided companies along with each company's most important market segments. We then track their mergers and acquisitions and match them with the segments. This exercise shows that these five firms use M&A activity mostly to strengthen their core market segments but rarely to expand their activities into new ones. Furthermore, most of the acquired products are shut down post acquisition, which suggests that GAFAM mainly acquire firm’s assets (functionality, technology, talent or IP) to integrate them in their ecosystem rather than the products and users themselves. For these tech giants, therefore, acquisition appears to be a substitute for in-house R&D. Finally, from our check for possible "killer acquisitions", it appears that just a single one in our sample could potentially be qualified as such. Keywords: Mergers, GAFAM, platform, digital markets, competition policy, killer acquisition JEL Codes: D43, K21, L40, L86, G34 ∗The authors would like to thank M. -
Nosql - Notonly Sql
International Journal of Enterprise Computing and Business Systems ISSN (Online) : 2230-8849 Volume 2 Issue 2 July 2013 International Manuscript ID : ISSN22308849-V2I2M3-072013 NOSQL - NOTONLY SQL Dr. S. George University of New Zealand Abstract A NoSQL database provides a mechanism for storage and retrieval of data that uses looser consistency models than traditional relational databases. Motivations for this approach include simplicity of design, horizontal scaling and finer control over availability. NoSQL databases are often highly optimized key–value stores intended for simple retrieval and appending operations, with the goal being significant performance benefits in terms of latency and throughput. NoSQL databases are finding significant and growing industry use in big data and real-time web applications. NoSQL systems are also referred to as "Not only SQL" to emphasize that they do in fact allow SQL-like query languages to be used. ACID vs BASE NoSQL cannot necessarily give full ACID guarantees. Usually eventual consistency is guaranteed or transactions limited to single data items. This means that given a sufficiently long period of time over which no changes are sent, all updates can be expected to propagate eventually through the system. [citation needed ]. Contents History Carlo Strozzi used the term NoSQL in 1998 to name his lightweight, open-source relational database that did not expose the standard SQL interface. Strozzi suggests that, as the International Journal of Enterprise Computing and Business Systems ISSN (Online) : 2230-8849 Volume 2 Issue 2 July 2013 International Manuscript ID : ISSN22308849-V2I2M3-072013 current NoSQL movement "departs from the relational model altogether; it should therefore have been called more appropriately 'NoREL'.