Data Center Design Guide Overview and Status

Transcription

1 Data Center Design Guide Overview and Status Jon Haas Data Center Design Guide Work Group Chair, Technical Committee Chair, and Board Member Intel Corporation George Navarro Data Center Design Guide Work Group Member Eaton Corporation

2 Agenda Charter and Scope Organization Status Document Outline Chapter Template Current Document Status Next Steps

3 Data Center Design Guide Charter and Scope Charter: To provide the industry with a design guide that identifies required instrumentation, efficiency and power management capabilities to be used by operators and designers to define requirements for, and to build and operate, energy efficient data centers. Scope Covers both existing (upgrades) and new facilities Designing the Data Center architecture as a whole, not in pieces Includes facility equipment (power and cooling), ICT equipment (servers, storage, networking), management software and enterprise applications (instrumentation)

4 Core Tenets of the Data Center Design Guide Fully Scalable: All systems/subsystems scale energy consumption and performance to use the minimal energy required to accomplish workload. Fully Instrumented: All systems/subsystems within the datacenter are instrumented and provide real time operating power and performance data through standardized management interfaces. Fully Announced: All systems/subsystems are discoverable and report minimum and maximum energy used, performance level capabilities, and location. Enhanced Management Infrastructure: Compute, network, storage, power, cooling, and facilities utilize standardized management/interoperability interfaces and language. Policy Driven: Operations are automated at all levels via policies set through management infrastructure. Standardized Metrics/Measurements: Energy efficiency is monitored at all levels within the datacenter from individual subsystems to complete datacenter and is reported using standardized metrics during operation. A guide for the standardization and evolution of key capabilities

5 DC Design Guide: Logical Divisions Facilities Power Management Infrastructure Applications Cooling Compute Storage Network ICT Equipment

6 Organizational Status Liaison Committee CSCI, DMTF, ECMA, SNIA. Data Center Design Guide WG Chair: J. Haas Technology and Strategy WG Chair: M. Patterson IJKK SWG Chair: H. Takagi EMEA SWG Chair: TBD Application Instrumentation SWG Chair: TBD Data Center Power Sub WG Chair P. Lembke Data Center Thermal Mgmt. Sub WG Chair: T. Harvey Compute SWG Chair: H. Barass Storage SWG Chair: Robert Mason Networking SWG Chair: K. Bross W/CSCI Mgmt. Infrastructure Sub WG Chair: J. Woodbury Facilities Integration Sub WG Chair: TBD Compliance and Interoperability Sub WG Chair: TBD Existing Opportunities exist to participate and influence To be created

7 Current Status First draft is available for review and comment Introduction and Overview, Management (balloted and approved) Power (balloted and approved) Thermal (balloted and approved) Japan Regional Considerations (balloted and approved) EMEA Regional Considerations (drafted and in ballot) Compute (drafted and in ballot) Storage (drafted and in ballot) Networking (drafted and in ballot) Equipment profiles for Facility Equipment created Power and Thermal CIM profiles defined

8 Document Outline Introduction Vision, goals, objective of the specification Document organization Architectural overview Data center design philosophy Management capabilities Features, capabilities, correlating power to productivity, policy implementation Equipment chapters (share a common outline and format) Facility equipment - power Facility equipment cooling ICT Equipment servers, storage, networking Application software instrumentation (Next Revision) Building facilities (Next Revision)

9 Document Outline continued Regional considerations Japan EMEA Operational implementation (Next Rev.) External to the data center - power sources, Smart Grid, etc. (Next Rev.) Appendix Glossary List of acronyms Reference documents

10 Chapter Outline Introduction: Discuss the goals and features for each category of equipment in your group Equipment description: Provide a paragraph that defines the equipment and how it is used Refer to each of the six core tenets of the DCDG as a context for discussing specific goals and features Efficiency requirements: For each category of equipment, list requirements with respect to three time periods: Current (2011), 2012 and beyond 2012 Profile information: features and capabilities Reporting requirements: what and how CIM Model and charts: measured and status info Operational goals and applicable metrics: BKMs and optimization, etc

11 Management Information Format Facilities CIM over Ethernet leverages past Operations WG efforts with DMTF Power Management Infrastructure Cooling Initially we will need to proxy from other interfaces and transports Applications From and to existing disparate management consoles or devices Compute Storage Network ICT Equipment Eventually realizing native implementation over time

12 CIM Model Diagram: UPS Example

13 CIM Reporting Charts UPS Example 1 of 2 Attribute Definition Units Notes Input RMS Voltage Volts Per Phase RMS Current Amperes Per Phase Real Power Kilowatts Per Phase Energy = Real Power * Time Interval Kilowatts-hr Per Phase Metered values (current) Frequency Hz Output RMS Voltage Volts Per Phase RMS Current Amperes Per Phase Real Power Kilowatts Per Phase Real Power * Time Interval Kilowatts-hr Per Phase Frequency Hz Per Phase System Temperature Degrees C Pressure Liquid Level OK Metered values (future) PSI Logic High Attribute Definition Units Ambient Temperature Degrees C True Power Factor Humidity % Total Distortion Power Factor Notes Room Room Per Phase

14 CIM Reporting Charts UPS Example 2 of 2 Status values (current) Attribute Definition Units Notes DC Input Recharging % Discharging % Low Fully Discharged Logic High Logic High ID Name/Model Text String Manufacturer Text String New status values (future) Attribute Definition Units Location Physical location Datacenter Floor # Room # Startup Boot time minutes Notes Security Sensitivity Security Sensitivity Security Sensitivity Staging time Serial Number Manufacturer ID alphanumeric

15 CIM Model Diagram Transformer Example Figure 1-4: UPS CIM diagram

16 CIM Reporting Charts Transformer Example 1 of 2 Metered values Attribute Definition Units Notes Input RMS Voltage Volts Per Phase RMS Current Amperes Per Phase Real Power Kilowatts Per Phase Energy = Real Power * Time Interval Kilowatts-hr Per Phase Frequency Hz Output RMS Voltage Volts Per Phase RMS Current Amperes Per Phase Real Power Kilowatts Per Phase Per Phase Real Power * Time Interval Kilowatts-hr Frequency Hz Per Phase System Temperature Degrees C Pressure Liquid Level OK PSI Logic High

17 Raising the Bar on Capabilities UPS example Core Tenant: Scalability Current status: There is currently no standard for UPS scalability. Proposed for 2012: A UPS should be designed to add or remove capacity in real time, so UPSes are always running at the optimal efficiency point (without shutting down the load, hot scalable) or automatically self-configuring. Proposed for 2012+: UPS efficiency curves should be as flat as possible, operating efficiently at any load. This which allows data centers to move away from modules. Efficiency should be 95% or higher when operating between 25-75% load.

18 Liaisons and Collaborations DMTF Use of CIM, Profiles, Compliance and Interop ECMA Implementation of an International Standard SNIA Storage content and CIM profiles for storage CSCI Networking content A coordinated, and orchestrated approach to holistic DCM

19 Next Steps Ballot remaining chapters and publish for Members Post for public comments Release a final first edition for implementation Begin 2 nd edition chapters in 2012 Publish a 1.1 update in 2013 Complete 2 nd edition in 2014 Implementation and deployment will require end user to pull for these new capabilities

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