IBM zEnterprise System

From Wikipedia, the free encyclopedia
 
 

Jump to navigationJump to search

History of IBM mainframes, 1952–present
Market name
Architecture

 

An IBM z13 with the cover removed. The interior is lit to better see the various internal parts.

 

A trio of IBM zEnterprise mainframe computers. From left to right: EC12, BC12, Bladecenter Extension.

 

An IBM zEnterprise EC12 with the cover removed. The interior is lit to better see the various internal parts.

IBM zEnterprise System is the latest line of IBM mainframes designed to offer both mainframe and distributed server technologies in an integrated system. The zEnterprise System consists of three components.[1] First is a System z server – a choice of the newest enterprise class server, the IBM zEnterprise EC12 that was announced August 28, 2012,[2] the smaller business class server the IBM zEnterprise 114 (z114) announced July 2011,[3] or the older enterprise-class server the IBM zEnterprise 196 (z196) that was introduced July 2010. Second is the IBM zEnterprise BladeCenter Extension (zBX), the infrastructure designed to provide logical integration and host IBM WebSphere DataPower Integrated Appliance XI50 for zEnterprise (DataPower XI50z) or general purpose x86 or Power blades. Last is the management layer, IBM zEnterprise Unified Resource Manager (zManager), which provides a single management view of zEnterprise resources.

In July 2013, IBM introduced an updated version of the z114 called the zBC12 and a special version of it designed to be a Linux virtualization server, the zBC12 Enterprise Linux Server[4] running only Linux hosts on the underlying z/VM hypervisor.

In January 2015, IBM introduced the z13 mainframe and in February 2016, the z13s was introduced. It is the last z Systems server to support running an operating system in ESA/390 architecture mode.[5]

In July 2017, IBM introduced the z14 mainframe.

Features[edit]

Processors and memory[edit]

z14[edit]

Launched in July 2017 the z14 or just IBM Z is based on the z14 chip, a 10-core processor running at 5.2 GHz. A z14 system can have a maximum of 240 Processing Unit (PU) cores, 170 of which can be configured to the customer's specification to run applications and operating systems, and up to 32 TB usable redundant array of independent memory (RAIM), some of which can be configured as Virtual Flash Memory (VFM). Each PU can be characterized as a Central Processor (CP), Integrated Firmware Processor (IFP), Integrated Facility for Linux (IFL) processor, Integrated Information Processor (zIIP), Internal Coupling Facility (ICF) processor, additional System Assist Processor (SAP) or as a spare. The focus of the IBM Z systems are pervasive encryption as the z14 processor has plenty of hardware assisted cryptography features.[6][7]

z13[edit]

Launched in 2015,[8] the z13 is based on the z13 chip, a 5 GHz octa-core processor. A z13 system can have a maximum of 168 Processing Unit (PU) cores, 141 of which can be configured to the customer's specification to run applications and operating systems, and up to 10144 GiB (usable) of redundant array of independent memory (RAIM). Each PU can be characterized as a Central Processor (CP), Integrated Firmware Processor (IFP), Integrated Facility for Linux (IFL) processor, z10 Integrated Information Processor (zIIP), Internal Coupling Facility (ICF) processor, additional System Assist Processor (SAP) or as a spare. The z Application Assist Processor (zAAP) feature of previous zArchitecture processors is now an integrated part of the z13's zIIP.[9]

zEnterprise EC12[edit]

The zEnterprise EC12 (zEC12) is based on the zEC12 chip, a 5.5 GHz hexa-core out-of-order CISC-based zArchitecture processor. The zEC12 can have a maximum of 120 cores, 101 of which are customer configurable to run operating systems and applications.[10] The maximum number of cores available in a particular model of the zEC12 is denoted by the model name. For example, the H20 has up to 20 cores orderable for direct customer use, plus spare and a special I/O processor core type, the System Assist Processor. Each core can be characterized as a Central Processor (CP), Integrated Facility for Linux (IFL) processor, z Application Assist Processor (zAAP), z10 Integrated Information Processor (zIIP), Internal Coupling Facility (ICF) processor, or additional System Assist Processor (SAP). The zEnterprise EC12 allows up to 3 TB (usable) of redundant array of independent memory (RAIM).

zEnterprise BC12[edit]

The zEnterprise BC12 (zBC12) is based on an upscaled z114, running 18 zEC12 processors at 4.2 GHz and up to 489 GB RAM. It's available in two models, the H06 and the H13 with one and two processing drawers respectively. The zBC12 can connect to the zBX expansion system. IBM is offering a special version of the zBC12 called the Enterprise Linux Server running only Linux hosts on top of its z/VM hypervisor targeting large migrations from x86 based Linux installations.

zEnterprise 114[edit]

The zEnterprise 114 (z114) is powered by up to 14 z196 out-of-order CISC-based zArchitecture microprocessors running at 3.8 GHz. The z114 offers 130 capacity settings across two models and is designed to offer the hybrid capabilities of the zEnterprise System with a lower capacity, an lower energy usage, and lower price.[11] Each core can be characterized as a Central Processor (CP), Integrated Facility for Linux (IFL) processor, z Application Assist Processor (zAAP), z10 Integrated Information Processor (zIIP), Internal Coupling Facility (ICF) processor, or additional System Assist Processor (SAP). The z114 supports up to 248 GB (usable) of redundant array of independent memory (RAIM).

zEnterprise 196[edit]

The zEnterprise 196's microprocessor is the z196 chip, a 5.2 GHz quad-core out-of-order CISC-based z/Architecture processor. The z196 can have a maximum of 24 processors giving a total of 96 cores, 80 of which are directly available to run operating systems and applications.[12] The number of cores available in a particular model of the z196 is denoted by the model name. For example, the M15 has 15 cores available for direct customer use, plus spare and service processor cores. Each core can be characterized as a Central Processor (CP), Integrated Facility for Linux (IFL) processor, z Application Assist Processor (zAAP), z10 Integrated Information Processor (zIIP), Internal Coupling Facility (ICF) processor, or additional System Assist Processor (SAP). The zEnterprise also supports x86 or Power blades attached via the zEnterprise BladeCenter Extension (zBX). The zEnterprise 196 allows up to 3 TB (usable) of redundant array of independent memory (RAIM).

Operating systems[edit]

The z14, z13, zEC12, zBC12, z114 and z196 support the IBM operating systems: z/OSz/VMz/VSE, and z/TPF. Other operating systems available include Linux on z Systems, such as Red Hat Enterprise Linux 6 and SUSE Linux Enterprise Server 11.[13] In November, 2011, IBM introduced Microsoft Windows Server 2008 support via x86 processor-based blades that plug into IBM's zEnterprise BladeCenter Extension (zBX). The zBX also supports the IBM WebSphere DataPower Integrated Appliance XI50 for zEnterprise (DataPower XI50z).

The zBX supports up to 112 blade modules. There is a redundant, secure 10 Gigabit Ethernet connection between the zBX and the server providing a private data network. There is also a 1 Gigabit Ethernet connection for management.

BladeCenter Extension (zBX)[edit]

The zEnterprise System supports an optional zEnterprise BladeCenter Extension (zBX). This add-on infrastructure supports redundant top-of-Rack switches, redundant power supplies, extra blowers, and IBM BladeCenter chassis. This add-on chassis allows POWER7 and x86 blade servers to be integrated with and managed from the mainframe.[14] The Gameframe installation at Hoplon Infotainment is an example of a hybrid mainframe.

The zBX supports up to 112 blade modules.[15] The zBX and the System Z server are connected by a redundant, secure 10 Gigabit Ethernet connection, providing a private data network. There is also a 1 Gigabit Ethernet connection for management.

Unified Resource Manager[edit]

The zEnterprise Unified Resource Manager (zManager) allows the supported zBX platforms to be virtualized into a single system for management. It also allows for the prioritization of certain workloads in the system. The Resource Manager can monitor the various platforms for signs of bottlenecks or faults and modify the overall system to recover, maintaining a specified quality of service level.[16]

Liquid cooling[edit]

The zEC12 and z196 support external liquid cooling. Customers have the option of purchasing their mainframe with a water-cooled heat exchanger.[17]

PU characterization[edit]

Each purchased PU (processor unit) is characterized as one of a variety of types:

  • CP: Central processor; The standard processors. For use with any supported operating system and user applications.
  • IFLIntegrated Facility for Linux; Exploited by Linux and for z/VM processing in support of Linux. It is not possible to IPL operating systems other than z/VM or Linux on an IFL.
  • zAAPApplication Assist Processor; Exploited under z/OS for designated workloads, which include the IBM JVM and XML System Services functions.
  • zIIPIntegrated Information Processor; Exploited under z/OS for designated workloads, which include various XML System Services, IPSec offload, certain parts of IBM DB2 DRDA, star schema, IBM HiperSockets for large messages, and the IBM GBS Scalable Architecture for Financial Reporting.
  • ICFInternal Coupling Facility; Used for z/OS clustering, running exclusively the Coupling Facility Control Code (CFCC).
  • SAPSystem Assist Processor; Offloads and manages I/O operations.
  • IFP: Integrated Firmware Processor; reserved for managing new generation of PCIe adapters in zEC12 and zBC12.
  • Spares: exclusively reserved to provide failover in the event of a processor (CP, IFL, zAAP, zIIP, ICF, SAP or IFP) failure.

Also it's possible to run a zAAP-eligible workload on zIIPs if no zAAPs are enabled. IBM does not impose any software charges on work that is dispatched on zAAP and zIIP processors.

The addition of IFLs, zAAPs, zIIPs, ICFs, SAPs or IFPs does not change the system capacity setting or its MSU rating, only CPs do.

Models[edit]

Enterprise Class[edit]

The zEC12 is available in five hardware models: H20, H43, H66, H89 and HA1.[18] The model number is based on the number of cores available for customer workloads. Additional cores are reserved as spares, SAPs and IFPs.

Model CPs IFLs zAAPs / zIIPs ICFs SAPs IFPs Spares Memory (GB)
H20 1–20 0–20 0–10 / 0–10 0–20 4–8 1 2–20 32–704
H43 1–43 0–43 0–21 / 0–21 0–43 8–16 1 2–43 32–1392
H66 1–66 0–66 0–33 / 0–33 0–66 12–24 1 2–66 32–2272
H89 1–89 0–89 0–44 / 0–44 0–89 16–32 1 2–89 32–3040
HA1 1–101 0–101 0–50 / 0–50 0–101 16–32 1 2–101 32–3040

The z196 is available in five hardware models: M15, M32, M49, M66 and M80. The model number is based on the number of cores available for customer workloads.[13] Additional cores are reserved as spares and as SAPs.

Model CPs IFLs zAAPs / zIIPs ICFs SAPs Spares zBX Memory (GB)
M15 0–15 0–15 0–7 / 0–7 0–15 3 2–15 0–1 32–752
M32 0–32 0–32 0–16 / 0–16 0–16 6 2–32 0–1 32–1520
M49 0–49 0–49 0–24 / 0–24 0–16 9 2–49 0–1 32–2288
M66 0–66 0–66 0–33 / 0–33 0–16 12 2–66 0–1 32–3056
M80 0–80 0–80 0–40 / 0–40 0–16 14 2–80 0–1 32–3056

Business Class[edit]

The zBC12 was introduced in July 2013 and is available in two hardware models, the H06 and the H13. It's designed to serve the mid-range business segment and can be configured to be a Linux virtualization server, in a version called the Enterprise Linux Server. The H13 has 18 processor cores, with up to 13 configurable. The H06 has nine, with up to six configurable.

Model CPs IFLs zAAPs / zIIPs ICFs SAPs IFPs Spares zBX Memory (GB)
H06 0–6 0–6 0–4 / 0–4 0–6 2 1 0 0–1 8–240
H13 0–6 0–13 0–8 / 0–8 0–13 2 1 2 0–1 16–496

The z114 is available in two hardware models: M05 and M10. Introduced in July, 2011, this system is designed to extend the benefits of the zEnterprise System to the mid-range business segment. Like the z196, the z114 is fully compatible with the zBX and the URM and also features the mission-critical server design elements. The z114 features up to 14 cores (up to 10 configurable) with a clock speed of 3.8 GHz. The z114 is physically approximately half the size of the z196.

Model CPs IFLs zAAPs / zIIPs ICFs SAPs Spares zBX Memory (GB)
M05 0–5 0–5 0–2 / 0–2 0–5 2–4 0 0–1 8–120
M10 0–5 0–10 0–5 / 0–5 0–10 2–4 2 0–1 16–248

See also

[From WIKI] IBM Z的更多相关文章

  1. IBM Z上邮件服务器的配置相关内容

    https://www.ibm.com/support/knowledgecenter/SSLTBW_1.13.0/com.ibm.zos.r13.halz002/sen.htm#sen 每次搜太费劲 ...

  2. 【wiki】红帽linux

    Red Hat Enterprise Linux From Wikipedia, the free encyclopedia wiki 上面红帽的版本信息. https://en.wikipedia. ...

  3. ibm z14大型主机介绍

    IBM z14™大型主机 (z14)被设计为数字经济中值得信任的基础架构.它提供  特性和功能以满足对于新服务和更佳客户体验的需求,同时保护日益  增长的数据量,并遵从日益复杂的法规.IBM z14 ...

  4. IBM主机家族——大型机、中型机、小型机

    对于x86架构的开放品台机器来说,IBM的封闭平台系列可以说是另一个“体系世界”. IBM z series    大型机, z/os操作系统 IBM i series/AS400   中型机,  i ...

  5. LIST OF NOSQL DATABASES [currently 150]

    http://nosql-database.org Core NoSQL Systems: [Mostly originated out of a Web 2.0 need] Wide Column ...

  6. Cygwin使用方法

    对于 UNIX 本身,也有各种称呼.IBM® 大型机用户说各种带字母 “z” 的行话,比如 IBM z/OS® 和 System z9 Virtual Machine (z/VM):嵌套系统开发人员使 ...

  7. RAC的QA

    RAC: Frequently Asked Questions [ID 220970.1]   修改时间 13-JAN-2011     类型 FAQ     状态 PUBLISHED   Appli ...

  8. oracle数据库 PSU,SPU(CPU),Bundle Patches 和 Patchsets 补丁号码快速参考 (文档 ID 1922396.1)

    数据库 PSU,SPU(CPU),Bundle Patches 和 Patchsets 补丁号码快速参考 (文档 ID 1922396.1) 文档内容   用途   详细信息   Patchsets ...

  9. Oracle GoldenGate学习之Goldengate介绍

    Oracle GoldenGate学习之Goldengate介绍 (2012-10-02 17:07:27) 标签: 检查点 数据传输 队列 进程 分类: Goldengate Goldengate介 ...

随机推荐

  1. Https 安全传输的原理

    序言 今天来聊一聊https 安全传输的原理. 在开始之前,我们来虚构两个人物, 一个是位于中国的张大胖(怎么又是你?!), 还有一个是位于米国的Bill (怎么还是你?!). 这俩哥们隔着千山万水, ...

  2. Docker介绍-hc课堂笔记

    1,传统模式-多个服务器:申请.安装jdk等.部署环境. 容器-整包,把有东西打包到一起,把这个包放在服务器上. linux中装了docker,起100个服务,改个数字就可以,5分钟左右. 2,虚拟化 ...

  3. 理解ASP.NET的IDataReader

    理解ASP.NET的IDataReader ADO.NET DataReader对象可以从数据库中检索只读.只进的数据流.因为每次在内存中的数据只有一行,所以使用DataReader可提高应用程序的性 ...

  4. EF Core中如何取消跟踪DbContext中所有被跟踪的实体

    首先定义一个DbContext的扩展类DbContextDetachAllExtension,其中包含一个DbContext的扩展方法DetachAll,用来取消跟踪DbContext中所有被跟踪的实 ...

  5. R语言入门 :基本数据结构

    1.向量 向量是R语言中最基本的数据类型,在R语言中没有单独的变量. (1)  创建向量 R语言中可以用 = 或者 <- 来赋值. 向量名 <- 向量 或  向量名 = 向量 向量的创建方 ...

  6. 20155209林虹宇Exp4 恶意代码分析

    Exp4 恶意代码分析 系统运行监控 使用schtasks指令监控系统运行 新建一个txt文件,然后将txt文件另存为一个bat格式文件 在bat格式文件里输入以下信息 然后使用管理员权限打开cmd, ...

  7. python装饰器 练习

    用类作为装饰器 练习一 最初代码 class bol(object): def __init__(self, func): self.func = func def __call__(self): r ...

  8. C语言与数据库操作入门

    https://blog.csdn.net/flyingqd/article/details/78763652 C语言与数据库操作入门(Win版) 2017年12月10日 17:30:17 阅读数:1 ...

  9. effective c++ 笔记 (35-40)

    //---------------------------15/04/24---------------------------- //#35   考虑virtual函数以外的其他选择 { /* 1: ...

  10. JNI探秘-----FileInputStream的read方法详解

    作者:zuoxiaolong8810(左潇龙),转载请注明出处,特别说明:本博文来自博主原博客,为保证新博客中博文的完整性,特复制到此留存,如需转载请注明新博客地址即可. 上一章我们已经分析过File ...