In-Memory Computing Platform: Data Grid Deep Dive

Total Page:16

File Type:pdf, Size:1020Kb

In-Memory Computing Platform: Data Grid Deep Dive In-Memory Computing Platform: Data Grid Deep Dive Rachel Pedreschi Matt Sarrel Director of Solutions Architecture Director of Technical Marketing GridGain Systems GridGain Systems [email protected] [email protected] @rachelpedreschi @msarrel © 2016 GridGain Systems, Inc. GridGain Company Confidential Agenda • Introduction • In-Memory Computing • GridGain / Apache Ignite Overview • Survey Results • Data Grid Deep Dive • Customer Case Studies © 2016 GridGain Systems, Inc. Why In-Memory Now? Digital Transformation is Driving Companies Closer to Their Customers • Driving a need for real-time interactions Internet Traffic, Data, and Connected Devices Continue to Grow • Web-scale applications and massive datasets require in-memory computing to scale out and speed up to keep pace • The Internet of Things generates huge amounts of data which require real-time analysis for real world uses The Cost of RAM Continues to Fall • In-memory solutions are increasingly cost effective versus disk-based storage for many use cases © 2015 GridGain Systems, Inc. GridGain Company Confidential Why Now? Data Growth and Internet Scale Declining DRAM Cost Driving Demand Driving Attractive Economics Growth of Global Data 35. 26.3 17.5 ZettabytesData of 8.8 DRAM 0. Flash Disk 8 zettabytes in 2015 growing to 35 in 2020 Cost drops 30% every 12 months © 2016 GridGain Systems, Inc. The In-Memory Computing Technology Market Is Big — And Growing Rapidly IMC-Enabling Application Infrastructure ($M) © 2016 GridGain Systems, Inc. What is an In-Memory Computing Platform? Multi-Featured Solution • Supports data caching, massive parallel processing, in-memory SQL, streaming and much more Does Not Replace Existing Databases • Slides in between the existing application and data layers Supports OLTP and OLAP Use Cases • Offers ACID compliant transactions as well as analytics support Multi-Platform Integration • Works with all popular RDBMS, NoSQL and Hadoop databases and offers a Unified API with support for a wide range of languages Deployable Anywhere • Can be deployed on premise, in the cloud, or in hybrid environments © 2015 GridGain Systems, Inc. GridGain Company Confidential Apache Ignite Project • 2007: First version of GridGain • Oct. 2014: GridGain contributes Ignite to ASF • Aug. 2015: Ignite is the second fastest project to | graduate after Spark • Today: • 60+ contributors and rapidly growing • Huge development momentum - Estimated 192 years of effort since the first commit in February, 2014 [Openhub] • Mature codebase: 1M+ lines of code © 2016 GridGain Systems, Inc. Application In-Memory Always Available Scalable SQL 99 / ACID / No Rip & Replace MapReduce © 2016 GridGain Systems, Inc. GridGain Enterprise Monitoring and Security High Availability Management Services OLTP OLAP GaaS and Streaming Caching Caching Messaging Data Grid Compute Grid Apache Ignite / GridGain Professional © 2016 GridGain Systems, Inc. Survey Results: Primary Industries Software Banking IT Consulting Other Telecommunications Insurance Investment Management Healthcare FinTech Government Retail eCommerce Other Financial Services Other Online Services Manufacturing Online Gaming Social Media Media Logistics Other Electronics Online Business Services Computers Hospitality Pharmaceuticals Utilities © 2016 GridGain Systems, Inc. Survey Results: What uses were you considering for in-memory computing Database Caching Application Scaling High Speed Transactions Real Time Streaming Faster Reporting RDBMS Scaling HTAP Apache Spark Acceleration Web Session Clustering Hadoop Acceleration MongoDB Acceleration 0 18 35 53 70 Column1 © 2016 GridGain Systems, Inc. Survey Results: How important are each of the following product features to your organization? Data Grid Compute Grid In-memory File System Service Grid Streaming Grid ANSI SQL-99 Compliance Container Support In-Memory Hadoop File System Spark Shared RDDs Hadoop Acceleration Integration with Zeppelin 0. 1.2 2.3 3.5 4.6 5.8 Column1 © 2016 GridGain Systems, Inc. Survey Results: Where do you run GridGain and/or Apache Ignite? Private Cloud On Premise AWS Microsoft Azure Google Cloud Platform Softlayer Another Public Cloud 0 15 30 45 60 Column1 © 2016 GridGain Systems, Inc. Survey Results: Which of the following protocols do you use to access your data? Java SQL MapReduce .NET C++ Scala Node.js PHP Groovy 0 23 45 68 90 Column1 © 2016 GridGain Systems, Inc. Survey Results: Which data stores are you/would you likely use with GridGain/Apache Ignite? Oracle MySQL HDFS PostresSQL MongoDB Microsoft SQL Server Cassandra DB2 Other 0 13 25 38 50 Column1 © 2016 GridGain Systems, Inc. Data Grid: Cache modes & Horizontal Scaling A A B A A B Primary Primary Primary Primary B B C B D C D C A C D C Local Client Backup Backup Local Client Backup Backup JVM 1 JVM 2 JVM 1 JVM 2 A A D C A A D C B B Primary Primary B B Primary Primary C C A B C B A D C C B A Near Cache Near Cache Remote Client Backup Backup Remote Client Backup Backup Client JVM JVM 3 JVM 4 Client JVM JVM 3 JVM 4 Replicated Cache Partitioned Cache © 2016 GridGain Systems, Inc. Cluster Groups Data Cache Zone 1 Data & Compute Zone 2 Compute Grid Zone 3 Data read Data write Server Server Client Server Server Server Server Client Client Server Server Client Map/Reduce Data read Data write Job Data read Compute Job Client Client Client GridGain / Ignite Cluster © 2016 GridGain Systems, Inc. Data Grid: Tiered Memory & Local Store • Tiered Memory Latency • On-Heap -> • Off-Heap -> Swap Space • Disk (Swap) • Persistent On-Disk Store Off-Heap • Fast Recovery On-Heap • Local Data Reload • Eliminate Network and Db impacts Capacity when reloading in-memory store Local Recoverable Store © 2016 GridGain Systems, Inc. Data Grid: Off-Heap Memory • Unlimited Vertical Scale • Avoid Java Garbage Collection Pauses • Small On-Heap Footprint • Configurable eviction policies • Off-Heap Indexes • Full RAM Utilisation • Simple Configuration © 2016 GridGain Systems, Inc. Data Grid: DC Replication DC1 DC2 • Multiple (up to 32) Data Centres • Complex Replication Technologies • Active-Active & Active-Passive • Smart Conflict Resolution • Durable Persistent Queues Active • Automatic Throttling Transactional or Bi-Directional Eventually • GridGain Enterprise Replication Consistent DC3 © 2016 GridGain Systems, Inc. Data Grid: External Persistence Write Through • Read-through & Write- through • Support for Write-behind DB External • Configurable eviction policies Persistent • DB schema mapping wizard: Ignite Clients Store • Generates all the XML configuration and Read Java POJOs Through Ignite Cache Nodes © 2016 GridGain Systems, Inc. Data Grid: Cache APIs • Predicate-based Scan Queries • Text Queries based on Lucene indexing • Query configuration using annotations, Spring XML or simple Java code • SQL Queries: Automatic Group By, Aggregations, Sorting, Cross-Cache Joins, Unions • Memcached (PHP, Java, Python, Ruby) • HTTP REST API • JDBC & ODBC © 2016 GridGain Systems, Inc. Data Grid: SQL Support (ANSI 99) • ANSI-99 SQL • In-Memory Indexes (On and Off- Heap) • Automatic Group By, Aggregations, Sorting • Cross-Cache Joins, Unions • Use local H2 engine © 2016 GridGain Systems, Inc. Data Grid: Transactions • Fully ACID • Support for Transactional & Atomic • Cross-cache transactions • Optimistic and Pessimistic concurrency modes with multiple isolation levels • Deadlock protection • JTA Integration © 2016 GridGain Systems, Inc. 1000’s of Deployments Automated Trading Systems • Real time analysis of trading positions • Real time market risk assessment • High volume transactions • Ultra low latencies trading Financial Services • Fraud Detection • Risk Analysis Mobile & IoT • Insurance rating and modeling • Real-time streaming processing • Complex event processing Big Data Analytics • Real time analysis of inventory Biotech • Operational up-to-the-second BI • High performance genome data matching • Drug discovery © 2016 GridGain Systems, Inc. Case Study: • Connects over 650 lifestyle and consumer brands (more than 4.5 million products) with brand advocates • Brands use the network to identify experts and engage them in their sales channel • Member profiles (interests, experience, content viewed, purchases) • Real Time Analytics on "We need it to work fast and work at scale, thousands of active user and GridGain does. We couldn't do what we sessions for personalized do without GridGain, and we're confident we content can scale to meet the growth we anticipate.“ -Jeremy Knudsen, CTO © 2016 GridGain Systems, Inc. Case Study: • Background: • The Challenge – Intelligentpipe is a big data – Collect and analyze massive software company serving amounts of mobile user the global traffic data in real time telecommunications industry – Tens of millions of users by developing solutions for – Consumption of network mobile operators to improve resources their business and – Type of network traffic operational processes (voice or data) © 2016 GridGain Systems, Inc. Case Study: • GridGain Professional Edition used to build a high performance low latency analysis platform • “GridGain ensures responsiveness regardless of how much information we need to search through.” Sakari Paloviita, CTO, Intelligentpipe • Collect and analyze multiple terabytes per day © 2016 GridGain Systems, Inc. Case Study: • Real-time analytics provides fast insight • Easy integration with existing systems due to GridGain’s Unified API and ANSI SQL-99 support • Linear scaling across deployed server to keep up seamlessly as the business grows We’ll want to use technology
Recommended publications
  • The Road Ahead for Computing Systems
    56 JANUARY 2019 HiPEAC conference 2019 The road ahead for Valencia computing systems Monica Lam on keeping the web open Alberto Sangiovanni Vincentelli on building tech businesses Koen Bertels on quantum computing Tech talk 2030 contents 7 14 16 Benvinguts a València Monica Lam on open-source Starting and scaling a successful voice assistants tech business 3 Welcome 30 SME snapshot Koen De Bosschere UltraSoC: Smarter systems thanks to self-aware chips 4 Policy corner Rupert Baines The future of technology – looking into the crystal ball 33 Innovation Europe Sandro D’Elia M2DC: The future of modular microserver technology 6 News João Pita Costa, Ariel Oleksiak, Micha vor dem Berge and Mario Porrmann 14 HiPEAC voices 34 Innovation Europe ‘We are witnessing the creation of closed, proprietary TULIPP: High-performance image processing for linguistic webs’ embedded computers Monica Lam Philippe Millet, Diana Göhringer, Michael Grinberg, 16 HiPEAC voices Igor Tchouchenkov, Magnus Jahre, Magnus Peterson, ‘Do not think that SME status is the final game’ Ben Rodriguez, Flemming Christensen and Fabien Marty Alberto Sangiovanni Vincentelli 35 Innovation Europe 18 Technology 2030 Software for the big data era with E2Data Computing for the future? The way forward for Juan Fumero computing systems 36 Innovation Europe Marc Duranton, Madeleine Gray and Marcin Ostasz A RECIPE for HPC success 23 Technology 2030 William Fornaciari Tech talk 2030 37 Innovation Europe Solving heterogeneous challenges with the 24 Future compute special Heterogeneity Alliance
    [Show full text]
  • Fog Computing: a Platform for Internet of Things and Analytics
    Fog Computing: A Platform for Internet of Things and Analytics Flavio Bonomi, Rodolfo Milito, Preethi Natarajan and Jiang Zhu Abstract Internet of Things (IoT) brings more than an explosive proliferation of endpoints. It is disruptive in several ways. In this chapter we examine those disrup- tions, and propose a hierarchical distributed architecture that extends from the edge of the network to the core nicknamed Fog Computing. In particular, we pay attention to a new dimension that IoT adds to Big Data and Analytics: a massively distributed number of sources at the edge. 1 Introduction The “pay-as-you-go” Cloud Computing model is an efficient alternative to owning and managing private data centers (DCs) for customers facing Web applications and batch processing. Several factors contribute to the economy of scale of mega DCs: higher predictability of massive aggregation, which allows higher utilization with- out degrading performance; convenient location that takes advantage of inexpensive power; and lower OPEX achieved through the deployment of homogeneous compute, storage, and networking components. Cloud computing frees the enterprise and the end user from the specification of many details. This bliss becomes a problem for latency-sensitive applications, which require nodes in the vicinity to meet their delay requirements. An emerging wave of Internet deployments, most notably the Internet of Things (IoTs), requires mobility support and geo-distribution in addition to location awareness and low latency. We argue that a new platform is needed to meet these requirements; a platform we call Fog Computing [1]. We also claim that rather than cannibalizing Cloud Computing, F. Bonomi R.
    [Show full text]
  • A Dynamic Cloud Computing Platform for Ehealth Systems
    A Dynamic Cloud Computing Platform for eHealth Systems Mehdi Bahrami 1 and Mukesh Singhal 2 Cloud Lab University of California Merced, USA Email: 1 IEEE Senior Member, [email protected]; 2 IEEE Fellow, [email protected] Abstract— Cloud Computing technology offers new Application Programming Interface (API) could have some opportunities for outsourcing data, and outsourcing computation issue when the application transfer to a cloud computing system to individuals, start-up businesses, and corporations in health that needs to redefine or modify the security functions of the API care. Although cloud computing paradigm provides interesting, in order to use the cloud. Each cloud computing system offer and cost effective opportunities to the users, it is not mature, and own services to using the cloud introduces new obstacles to users. For instance, vendor lock-in issue that causes a healthcare system rely on a cloud Security Issue: Data security refers to accessibility of stored vendor infrastructure, and it does not allow the system to easily data to only authorized users, and network security refers to transit from one vendor to another. Cloud data privacy is another accessibility of transfer of data between two authorized users issue and data privacy could be violated due to outsourcing data through a network. Since cloud computing uses the Internet as to a cloud computing system, in particular for a healthcare system part of its infrastructure, stored data on a cloud is vulnerable to that archives and processes sensitive data. In this paper, we both a breach in data and network security. present a novel cloud computing platform based on a Service- Oriented cloud architecture.
    [Show full text]
  • The FPGA As a Computing Platform
    X01_Introduction.qxp 3/15/2005 3:31 PM Page 1 CHAPTER 1 The FPGA as a Computing Platform As the cost per gate of FPGAs declines, embedded and high-performance sys- tems designers are being presented with new opportunities for creating accel- erated software applications using FPGA-based programmable hardware platforms. From a hardware perspective, these new platforms effectively bridge the gap between software programmable systems based on traditional microprocessors, and application-specific platforms based on custom hard- ware functions. From a software perspective, advances in design tools and methodology for FPGA-based platforms enable the rapid creation of hardware-accelerated algorithms. The opportunities presented by these programmable hardware plat- forms include creation of custom hardware functions by software engineers, later design freeze dates, simplified field updates, and the reduction or elimi- nation of custom chips from many categories of electronic products. Increas- ingly, systems designers are seeing the benefits of using FPGAs as the basis for applications that are traditionally in the domain of application-specific in- tegrated circuits (ASICs). As FPGAs have grown in logic capacity, their ability to host high-performance software algorithms and complete applications has grown correspondingly. In this chapter, we will present a brief overview of FPGAs and FPGA- based platforms and present the general philosophy behind using the C lan- guage for FPGA application development. Experienced FPGA users will find 1 X01_Introduction.qxp 3/15/2005 3:31 PM Page 2 2 The FPGA as a Computing Platform much of this information familiar, but nonetheless we hope you stay with us as we take the FPGA into new, perhaps unfamiliar territory: that of high-performance computing.
    [Show full text]
  • Computing Platforms Chapter 4
    Computing Platforms Chapter 4 COE 306: Introduction to Embedded Systems Dr. Abdulaziz Tabbakh Computer Engineering Department College of Computer Sciences and Engineering King Fahd University of Petroleum and Minerals [Adapted from slides of Dr. A. El-Maleh, COE 306, KFUPM] Next . Basic Computing Platforms The CPU bus Direct Memory Access (DMA) System Bus Configurations ARM Bus: AMBA 2.0 Memory Components Embedded Platforms Platform-Level Performance Computing Platforms COE 306– Introduction to Embedded System– KFUPM slide 2 Embedded Systems Overview Actuator Output Analog/Digital Sensor Input Analog/Digital CPU Memory Embedded Computer Computing Platforms COE 306– Introduction to Embedded System– KFUPM slide 3 Computing Platforms Computing platforms are created using microprocessors, I/O devices, and memory components A CPU bus is required to connect the CPU to other devices Software is required to implement an application Embedded system software is closely tied to the hardware Computing Platform: hardware and software Computing Platforms COE 306– Introduction to Embedded System– KFUPM slide 4 Computing Platform A typical computing platform includes several major hardware components: The CPU provides basic computational facilities. RAM is used for program and data storage. ROM holds the boot program and some permanent data. A DMA controller provides direct memory access capabilities. Timers are used by the operating system A high-speed bus, connected to the CPU bus through a bridge, allows fast devices to communicate efficiently with the rest of the system. A low-speed bus provides an inexpensive way to connect simpler devices and may be necessary for backward compatibility as well. Computing Platforms COE 306– Introduction to Embedded System– KFUPM slide 5 Platform Hardware Components Computer systems may have one or more bus Buses are classified by their overall performance: lows peed, high- speed.
    [Show full text]
  • Download from an Unknown Website Cannot Be Said to Be ‘Safe’ Just Because It Happens Not to Harbor a Virus
    A direct path to dependable software The MIT Faculty has made this article openly available. Please share how this access benefits you. Your story matters. Citation Jackson, Daniel. “A direct path to dependable software.” Commun. ACM 52.4 (2009): 78-88. As Published http://dx.doi.org/10.1145/1498765.1498787 Publisher Association for Computing Machinery Version Author's final manuscript Citable link http://hdl.handle.net/1721.1/51683 Terms of Use Attribution-Noncommercial-Share Alike 3.0 Unported Detailed Terms http://creativecommons.org/licenses/by-nc-sa/3.0/ A Direct Path To Dependable Software Daniel Jackson Computer Science and Artificial Intelligence Laboratory Massachusetts Institute of Technology What would it take to make software more dependable? Until now, most approaches have been indirect: some practices – processes, tools or techniques – are used that are believed to yield dependable software, and the argument for dependability rests on the extent to which the developers have adhered to them. This article argues instead that developers should produce direct evidence that the software satisfies its dependability claims. The potential advantages of this approach are greater credibility (since the ar- gument is not contingent on the effectiveness of the practices) and reduced cost (since development resources can be focused where they have the most impact). 1 Why We Need Better Evidence Is a system that never fails dependable? Not necessarily. A dependable system is one you can depend on – that is, in which you can place your reliance or trust. A rational person or organization only does this with evidence that the system’s benefits outweigh its risks.
    [Show full text]
  • Open Source Solution for Cloud Computing Platform Using Openstack
    See discussions, stats, and author profiles for this publication at: http://www.researchgate.net/publication/263581733 Open Source Solution for Cloud Computing Platform Using OpenStack CONFERENCE PAPER · MAY 2014 DOI: 10.13140/2.1.1695.9043 CITATIONS DOWNLOADS VIEWS 8 826 204 5 AUTHORS, INCLUDING: Rakesh Kumar Neha Gupta JECRC Foundation University of Adelaide 20 PUBLICATIONS 69 CITATIONS 8 PUBLICATIONS 36 CITATIONS SEE PROFILE SEE PROFILE Shilpi Charu Kanishk Jain Rajasthan Technical University JECRC Foundation 10 PUBLICATIONS 33 CITATIONS 2 PUBLICATIONS 14 CITATIONS SEE PROFILE SEE PROFILE Available from: Rakesh Kumar Retrieved on: 10 August 2015 Rakesh Kumar et al, International Journal of Computer Science and Mobile Computing, Vol.3 Issue.5, May- 2014, pg. 89-98 Available Online at www.ijcsmc.com International Journal of Computer Science and Mobile Computing A Monthly Journal of Computer Science and Information Technology ISSN 2320–088X IJCSMC, Vol. 3, Issue. 5, May 2014, pg.89 – 98 RESEARCH ARTICLE Open Source Solution for Cloud Computing Platform Using OpenStack Rakesh Kumar1, Neha Gupta2, Shilpi Charu3, Kanishk Jain4, Sunil Kumar Jangir5 1,2,3,4,5Department of Information Technology, JECRC, Jaipur, India 1 [email protected], 2 [email protected], 3 [email protected] 4 [email protected], 5 [email protected] Abstract— OpenStack is a massively scalable open source cloud operating system that is a global collaboration of developers and cloud computing technologists producing the ubiquitous open source cloud computing platform for public and private clouds. OpenStack provides series of interrelated projects delivering various components for a cloud infrastructure solution as well as controls large pools of storage, compute and networking resources throughout a datacenter that all managed through a dashboard(Horizon) that gives administrators control while empowering their users to provision resources through a web interface.
    [Show full text]
  • A Review on Software Testing Framework in Cloud Computing
    D.Anitha et al, / (IJCSIT) International Journal of Computer Science and Information Technologies, Vol. 5 (6) , 2014, 7553-7562 A Review on Software Testing Framework in Cloud Computing D.Anitha1 and Dr.M.V.Srinath2 1 Research Scholar, Department Of Computer Science, STET Womens College Mannargudi. 2Director, Department of Computer Applications, STET Womens College, Mannargudi. Abstract— Cloud computing has emerged as a new developers. It is based on .NET or Java extended computing paradigm that impacts several different research with cloud services. fields, including software testing. In cloud computing, the user 3. Infrastructure as a Service (Iaas) - It delivers cloud can use high end services in form of software that resides on computing infrastructures, namely, servers, different server and can be accessed from all over the world. software, data-center space and network It not only changes the way of obtaining computing resources but also alters the way of managing and delivering computing requirements. services, technologies and solutions. Software testing reduces The growth of cloud based services is evident, but the need for hardware and software resources and offers a cloud still undergoes development and testing before flexible and efficient cloud platform. Testing in the cloud deploying. The development of cloud-based services platform is effectively supported by engineers based on new increases with the need for testing their applications. Cloud test models and criteria. Prioritization technique is introduced computing provides cost effective and flexible means via to provide better relationship between test cases. These test scalable computing power and diverse services. The cloud cases are clustered based on priority level.
    [Show full text]
  • Integrated Circuit Designer
    About Seeqc At Seeqc, we are developing the world’s first digital quantum computing platform. Our unique chips- scale quantum architecture delivers unparalleled scope for commercial scalability. We have partnered with world-class quantum algorithm teams, and visionary enterprise clients to build quantum computers that will herald a new era in computational power. You will join a team of experienced executives and scientists with a varied background in superconducting digital circuits and quantum technologies. We have established an international presence, headquarters in New York with facilities in London and Naples, creating a truly diverse and unique team atmosphere. You will work with our international teams and partners to build a unique quantum computing platform with integrated superconducting digital circuits, designed to provide solutions for the ground-breaking challenges faced by our customers; from new drug modelling and building longer-lasting battery technologies, to advanced machine learning. We are offering full-time positions with highly competitive salary and company benefits including equity options. Roles are based in New York, and our international presence means that there will be opportunities to travel. For more info about Seeqc, head to seeqc.com About your role You will work closely with our digital design, quantum design and fabrication teams to perform circuit design including simulation, optimization, layout, verification of superconductor digital and mixed signal circuits. You will take advantage of your proficiency with computer-aided design tools to develop innovative solutions for the novel computational challenges realised in our unique hybrid quantum-classical superconducting quantum processor architecture. You will exploit your experience with analog RF circuit design or high-speed digital circuit design to create advanced classical circuits that can take maximum advantage Seeqc’s unique integrated quantum-classical quantum processors.
    [Show full text]
  • Nutanix Xtreme Computing Platform
    Datasheet Nutanix Xtreme Computing Platform The Nutanix Xtreme Computing Platform is a 100% software-driven infrastructure solution that natively converges storage, compute and virtualization into a turnkey appliance that can be deployed in minutes to run any application out of the box. Datacenter capacity can be easily expanded one node at a time with no disruption, delivering linear and predictable scalability with pay-as-you-grow flexibility. Nutanix eliminates complexity and allows IT to drive better business outcomes. Nutanix is built with the same web-scale technologies and architectures that power leading Internet and cloud infrastructures, such as Google, Facebook, and Amazon – and runs any workload at any scale. The Xtreme Computing Platform brings together web-scale engineering with consumer-grade management to make infrastructure invisible and elevate IT teams so they can focus on what matters most – applications. At the heart of the Xtreme Computing Platform are two product families: Nutanix Acropolis and Nutanix Prism. Acropolis provides a distributed storage fabric delivering enterprise storage services, and an app mobility fabric that enables workloads to move freely between virtualization environments without penalty. Nutanix Prism, a comprehensive management solution for Acropolis, delivering unprecedented one-click simplicity to the IT infrastructure lifecycle. Unprecedented Flexibility Uncompromising Simplicity Acropolis delivers the industry’s first open platform for Prism incorporates consumer-grade design to simplify application-centric virtualization and mobility. IT professionals deployment, optimization and operations of advanced IT benefit from uncompromising flexibility of where to run their infrastructure. Prism provides one-click infrastructure applications, and can freely choose the best application management, one-click operational insights and one-click virtualization and provisioning technologies for their troubleshooting for both storage and compute.
    [Show full text]
  • Building a Trustworthy Computing Platform
    Building a Trustworthy Computing Platform Gabriel L. Somlo, Ph.D. <[email protected]> SEI, CERT Division Carnegie Mellon University Pittsburgh, PA 15213 ©2019 Carnegie Mellon University Building a Trustworthy Computing Platform Gabriel L. Somlo, Ph.D. [Distribution Statement A] Approved for public release and unlimited distribution. Copyright 2019 Carnegie Mellon University. All Rights Reserved. This material is based upon work funded and supported by the Department of Defense under Contract No. FA8702-15-D-0002 with Carnegie Mellon University for the operation of the Software Engineering Institute, a federally funded research and development center. The view, opinions, and/or findings contained in this material are those of the author(s) and should not be construed as an official Government position, policy, or decision, unless designated by other documentation. References herein to any specific commercial product, process, or service by trade name, trade mark, manufacturer, or otherwise, does not necessarily constitute or imply its endorsement, recommendation, or favoring by Carnegie Mellon University or its Software Engineering Institute. NO WARRANTY. THIS CARNEGIE MELLON UNIVERSITY AND SOFTWARE ENGINEERING INSTITUTE MATERIAL IS FURNISHED ON AN “AS-IS” BASIS. CARNEGIE MELLON UNIVERSITY MAKES NO WARRANTIES OF ANY KIND, EITHER EXPRESSED OR IMPLIED, AS TO ANY MATTER INCLUDING, BUT NOT LIMITED TO, WARRANTY OF FITNESS FOR PURPOSE OR MERCHANTABILITY, EXCLUSIVITY, OR RESULTS OBTAINED FROM USE OF THE MATERIAL. CARNEGIE MELLON UNIVERSITY DOES NOT MAKE ANY WARRANTY OF ANY KIND WITH RESPECT TO FREEDOM FROM PATENT, TRADEMARK, OR COPYRIGHT INFRINGEMENT. [DISTRIBUTION STATEMENT A] This material has been approved for public release and unlimited distribution. Please see Copyright notice for non-US Government use and distribution.
    [Show full text]
  • Electrical Design Platform on Engineering Cloud
    Electrical Design Platform on Engineering Cloud Takeo Nakamura Kiyokazu Moriizumi Toshiro Sato Shuichiro Yamada The conventional requirements of monozukuri (manufacturing) included needs for high performance, miniaturization, low costs and fast development. In addition to these, product development has come to require businesses to fulfill their social responsibilities in areas such as business continuity and consideration for the environment and safety. In order to respond to these changes in technologies and the business environment, it is essential to introduce development processes and a development environment that allow for effective governance of development overall. Fujitsu has integrated the know-how of monozukuri cultivated over many years, and built Flexible Technical Computing Platform (FTCP) as the integrated design development environment. It has provided it to customers in development sections, manufacturing sections and repair sections as “Engineering Cloud.” This paper describes an overview of FTCP. It also covers the features of and linkage between CAD for designing printed circuit boards, a key component of the electrical design platform; a simulation environment for analyzing noise and such like; and a standard component database which supports them. Moreover, it also describes the merits of providing FTCP in a cloud environment by using Engineering Cloud, and the shift of customers’ existing development environments to the cloud. 1. Introduction social responsibilities. In these technology Monozukuri (manufacturing) is becoming and market environments, standardized and more and more difficult every year with the governed product development process and increasing number of factors to take into innovation of the development environment that account in product development due to the supports the process are becoming indispensable.
    [Show full text]