HP StorageWorks 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide

Transcription

1 HP StorageWorks 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide Part number: Fifth edition: February 2008

2 Legal and notice information Copyright Hewlett-Packard Development Company, L.P. The information contained herein is subject to change without notice. The only warranties for HP products and services are set forth in the express warranty statements accompanying such products and services. Nothing herein should be construed as constituting an additional warranty. HP shall not be liable for technical or editorial errors or omissions contained herein.

3 Contents About this guide Intended audience Related documentation Document conventions and symbols Rack stability HP technical support Customer self repair Product warranties Subscription service HP websites Documentation feedback EVA 4x00/6x00/8x00 hardware Storage rack U rack U rack Fibre Channel drive enclosures Fibre Channel loop switches EVA8x00 HSV210-A/B controllers EVA6x00 and EVA4x00 HSV200-A/B controllers EVA8x00 configurations C2D configurations C6D configurations C12D configuration EVA6x00 configurations C4D configuration C5D configuration C6D configuration C7D configuration C8D configuration EVA4x00 configurations C1D configuration C2D configuration C3D configuration C4D configuration ASpecifications Physical specifications Environmental specifications Power specifications B Low-voltage Japanese cabinets General description Reference documents x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 3

4 Power configurations Specifications EVA cabinet footprint Weights and dimensions Center of gravity Tip stability Index

5 Figures 1 FC drive enclosure front and rear views FC loop switch FC loop switch HSV210/200 controller front view HSV210-A/B controller rear view HSV200-A/B controller rear view C2D Storage-Centric configuration EVA8x00 2C2D Storage-Centric cable diagram C2D Multi-Product configuration EVA8x00 2C2DMulti-Product cable diagram C6D Storage-Centric configuration EVA8x00 2C6D Storage-Centric configurationcable diagram C6D Multi-Product configuration EVA8x00 2C6D Multi-Product configurationcablediagram C12D configuration EVA8x00 2C12D cable diagram C4D configuration EVA6x00 2C4D cable diagram C5D configuration EVA6x00 2C5D cable diagram C6D configuration EVA6x00 2C6D cable diagram C7D configuration EVA6x00 2C7D cable diagram C8D configuration EVA6x00 2C8D cable diagram C1D configuration EVA4x00 2C1D cable diagram C2D configuration EVA4x00 2C2D cable diagram C3D configuration EVA4x00 2C3D cable diagram C4D configuration x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 5

6 34 EVA4x00 2C4D cable diagram HP StorageWorks 42U low-voltage cabinet HP StorageWorks 36U low-voltage cabinet EVA cabinet footprint

7 Tables 1 Document conventions Maximum storage capacities for the 2C2D configuration Maximum storage capacities for the 2C6D configuration Maximum storage capacities for the 2C12D configuration Maximum storage capacities for the 2C4D configuration Maximum storage capacities for the 2C5D configuration Maximum storage capacities for the 2C6D configuration Maximum storage capacities for the 2C7D configuration Maximum storage capacities for the 2C8D configuration Maximum storage capacities for the EVA4x00 2C1D configuration Maximum storage capacities for the 2C2D configuration Maximum storage capacities for the 2C3D configuration Maximum storage capacities for the 2C4D configuration Enterprise Virtual Array 4x00/6x00/8x00 Product Dimensions, Weight and Clearance Environmental specifications Enterprise storage system AC input line voltages Power Data (North America/Europe/Japan) maximum configuration EVA4x00 power specifications 208Volts EVA4x00 power specifications 230 Volts EVA6x00 power specifications 208 Volts EVA6x00 power specifications 230 Volts EVA8x00 power specifications 208 Volts EVA8x00 power specifications 230 Volts HP StorageWorks 42U low-voltage cabinet HP StorageWorks 36U low-voltage cbinet Center of gravity measurements 42U low-voltage cabinet Center of gravity measurements 36U low-voltage cabinet x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 7

8 8

9 About this guide This hardware configuration guide provides information to help you: Learn about the Enterprise Virtual Array hardware components. Understand the supported storage rack configurations. Understand the supported copper cable configurations. Intended audience This book is intended for use by Enterprise Virtual Array customers involved in the installation, operation, and management of the EVA 4x00/6x00/8x00 storage systems and who are experienced with the following: SANs and storage systems. Networking and virtual storage concepts. Enterprise Virtual Array products. Related documentation Additional documentation is available from the HP website at Select Disk Storage Systems from Storage, and then select either HP StorageWorks 4000/6000/8000 Enterprise Virtual Arrays or HP StorageWorks 4100/6100/8100 Enterprise Virtual Arrays from EVA Disk Arrays. Document conventions and symbols Table 1 Document conventions Convention Blue text: Table 1 Blue, underlined text: Bold text Italic text Monospace text Monospace, italic text Monospace, bold text Element Cross-reference links and addresses website addresses Keys that are pressed Text typed into a GUI element, such as a box GUI elements that are clicked or selected, such as menu and list items, buttons, tabs, and check boxes Text emphasis File and directory names System output Code Commands, their arguments, and argument values Code variables Command variables Emphasized monospace text 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 9

10 WARNING! Indicates that failure to follow directions could result in bodily harm or death. CAUTION: Indicates that failure to follow directions could result in damage to equipment or data. IMPORTANT: Provides clarifying information or specific instructions. NOTE: Provides additional information. TIP: Provides helpful hints and shortcuts. Rack stability Rack stability protects personnel and equipment. WARNING! To reduce the risk of personal injury or damage to equipment: Extend leveling jacks to the floor. Ensure that the full weight of the rack rests on the leveling jacks. Install stabilizing feet on the rack. In multiple-rack installations, fasten racks together securely. Extend only one rack component at a time. Racks can become unstable if more than one component is extended. HP technical support For worldwide technical support information, see the HP support website: Before contacting HP, collect the following information: Product model names and numbers Technical support registration number (if applicable) Product serial numbers Error messages Operating system type and revision level Detailed questions 10 About this guide

11 Customer self repair HP customer self repair (CSR) programs allow you to repair your StorageWorks product. If a CSR part needs replacing, HP ships the part directly to you so that you can install it at your convenience. Some parts do not qualify for CSR. Your HP-authorized service provider will determine whether a repair can be accomplished by CSR. For more information about CSR, contact your local service provider. For North America, see the CSR website: This product has no customer replaceable components. Product warranties For information about HP StorageWorks product warranties, see the warranty information website: Subscription service HP recommends that you register your product at the Subscriber's Choice for Business website: After registering, you will receive notification of product enhancements, new driver versions, firmware updates, and other product resources. HP websites For additional information, see the following HP websites: Documentation feedback HP welcomes your feedback. To make comments and suggestions about product documentation, please send a message to storagedocsfeedback@hp.com. All submissions become the property of HP. 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 11

12 12 About this guide

13 1 EVA 4x00/6x00/8x00 hardware This chapter discusses the hardware components in the Enterprise Virtual Array (EVA). The following topics are discussed: Storage rack Fibre Channel drive enclosures Fibre Channel loop switches EVA8x00 HSV210-A/B controllers EVA6x00 and EVA4x00 HSV200-A/B controllers Storage rack 36U rack 42U rack Racks are available for the EVA storage system in 36U and 42U configurations. The storage rack can hold a maximum of 12 Fibre Channel (FC) drive enclosures and two controllers. The 36U rack is graphite in color and 1000 mm (39.4 inches) deep. The 19 inch (482.6 mm) industry-standard rack provides an enclosure for rack-mountable products with a height capacity of 36U. Perforated front and back doors are included, and 36U side panels and stabilizer kits are optional. The 42U rack is graphite in color and 909 mm (35.8 inches) deep. The storage rack features standard 19 inch (482.6 mm) mounting rails. The 42U rack can support Enterprise Virtual Array configurations that include FC loop switches or expansion panels. Perforated front and back doors are included, and 42Usidepanelsandstabilizerkitsareoptional. Fibre Channel drive enclosures Each FC drive enclosure includes the following features: 3U drive enclosure Dual redundant, active-to-active, 2 Gbps Fibre Channel loops Fourteen 1 inch Fibre Channel disks per enclosure Dual 2 Gbps Fibre Channel I/O module A and B Enhanced fault detection Small Form-Factor Pluggables (SFPs) Dual 500 W redundant hot-plug power supplies and fans For ease of reference, the disk drives are usually referred to by their physical location in the drive bay. Figure 1 shows the front and rear views of the FC drive enclosure and the physical location of each drive bay. 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 13

14 1 2 Front 10 Rear a Figure 1 FC drive enclosure front and rear views 1. Drive bay 1 2. Drive bay EMU 4. I/O module B 5. Blower 1 6. Power supply 1 7. Blower 2 8. Power supply 2 9. I/O module A 10. Status indicators (EMU, enclosure power, enclosure fault) Fibre Channel loop switches The Enterprise Virtual Array uses FC loop switches to connect all of the drive enclosures to the controller pair via copper cables. Each FC loop switch acts as a central point of interconnection and establishes a physical loop topology. Switch use: EVA4000/4100 does not use switches on any configuration EVA6000/6100 uses switches on all configurations EVA8000/8100 only uses switches with more than four disk enclosures The storage system uses one of the following loop switches: loop switch used with 2 Gb and 4 Gb controllers (required on EVA 4100/6100/8100) loop switch used with 2 Gb and 4 Gb controllers CAUTION: When using the loop switch, ensure that there is no disk in bays 12, 13, and 14 in enclosures 17, 20, and 24. Slots 13 and 14 are assigned the same ALPA as the controllers and slot 12 is assigned ALPA 4, which is taken by the loop switch. Failure to adhere to this rule will disrupt storage system operation. HP also recommends that you keep three additional bays open to maintain the maximum device count of 120. For ease of use and consistency in configurations, HP recommends keeping bays 12, 13, and 14 open in enclosures 16 and 19. The major features of the FC loop switch are: Gbps operating speed 14 EVA 4x00/6x00/8x00 hardware

15 Twelve ports Half-width, 1U size System and port status indicators An Ethernet port Universal power supply that operates between 100 to 250 VAC (or 50 to 60 Hz) SFP transceivers Figure 2 shows the rear view of the Fibre Channel loop switch V~, 50/60 HZ POWER FAULT TEMP Figure FC loop switch 1. Ethernet activity 2. Ethernet link 3. Port status 4. System status Figure 3 shows the front and rear views of the Fibre Channel loop switch Figure FC loop switch 1. Handle 2. Bezel snaps 3. Alignment tabs 4. Walk-up RS-232 port 5. SFP status indicator 6. Port Bypassed indicator 7. POST fault indicator 8. Over Temp indicator 9. Power indicator 10. Loop operational indicator 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 15

16 EVA8x00 HSV210-A/B controllers Two high-performance HSV210 controllers are included in each EVA8x00 rack. The EVA8000 controller is identified as HSV210-A and the EVA8100 controller is identified as HSV210-B. Each controller is contained in a separate enclosure and provides the following features: High-performance PowerPC microprocessor An Operator Control Panel (OCP) for easy operation 4U rack space required for both controller enclosures Four 4 Gbps Fibre Channel-Switched Fabric host ports Four 2 Gbps FC-AL device ports Arranged in redundant pairs Data load/performance balanced across a pair Supports up to 240 disks (120 disks per pair) 2 GB cache per controller, mirrored, with battery backup 2 Gbps FC cache mirroring port with device port backups Two mirror ports Dual power supplies The controller is the interface between HP StorageWorks Command View EVA and the Enterprise Virtual Array (the interface between hosts and disks). Up to 18 drive enclosures are supported by one HSV210-A/B controller pair (two controllers). Figure 4 shows the front of the controller. Figure 5 shows the controller rear view Figure 4 HSV210/200 controller front view 1. Battery 0 2. Battery 1 (EVA8x00 only) 3. Blower 0 4. Blower 1 5. Operator Control Panel (OCP) 6. Status indicators 7. Unit ID 16 EVA 4x00/6x00/8x00 hardware

17 Figure 5 HSV210-A/B controller rear view 1. Dual controller interconnect 2. CAB (cabinet address bus) 3. Unit ID 4. Power ON switch 5. FC device ports 6. FC cache mirror ports 7. FC host ports 8. Power supply 0 9. Power supply Service connectors (not for customer use) EVA6x00 and EVA4x00 HSV200-A/B controllers Two high-performance HSV200 controllers are included in each EVA6x00 and EVA4x00 storage system. The EVA4000/6000 controllers are identified as HSV200-A. The EVA4100/6100 controllers are identified as HSV200-B. Each controller is installed in a separate enclosure and provides the following features: High-performance, PowerPC microprocessor An Operator Control Panel (OCP) for easy operation 4U rack space required for both controller enclosures Two 4 Gbps, FC-Switch Fabric host ports Two 2 Gbps, FC-AL device ports Arranged as a single redundant pair Data load/performance balanced across a pair Support for up to 112 drives 1 GB cache per controller, mirrored, with battery backup 2 Gbps, FC cache mirroring port with device port backups Each HSV200-A/B controller supports four drive enclosures on the EVA4x00, and eight drive enclosures on the EVA6x00. Figure 4 shows the front of the controller. Figure 6 shows the controller rear view. 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 17

18 Figure 6 HSV200-A/B controller rear view 1. Dual controller interconnect 2. CAB (cabinet address bus) 3. Unit ID 4. Power ON switch 5. FC device ports 6. FC cache mirror ports 7. FC host ports 8. Power supply 0 9. Power supply Service connectors (not for customer use) 18 EVA 4x00/6x00/8x00 hardware

19 2 EVA8x00 configurations This chapter discusses the standard EVA8x00 configurations. Each section describes the placement of HSV controllers, drive enclosures, enclosure address bus shelf ID expansion cables, and copper Fibre Channel cables. NOTE: The configurations described in this guide are the preferred configurations. Other configurations may be used, but they should conform to the following: Disk enclosures should be balanced across the two back-end loop pairs. Use of enclosure ID 7 for disk enclosures is not allowed. 2C2D configurations There are two 2C2D configurations: the Storage-Centric (Figure 7) and the Multi-Product (Figure 9). Each configuration provides a maximum storage capacity of 8.4 TB and can contain a maximum of 28 disks. These configurations are available in a 42U rack and have two HSV210-A/B controllers and two drive enclosures. The Storage-Centric configuration can be expanded (by adding drive enclosures) while remaining online. The Multi-Product more easily allows multiple products to be racked with the EVA, but can only be expanded by powering it down to make these expansion modifications Figure 7 2C2D Storage-Centric configuration 1. Drive enclosure 2. HSV210-A/B controller pair 3. 3U blank The 2C2D Storage-Centric configuration cable routing diagram is located in Figure 8. 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 19

20 c Figure 8 EVA8x00 2C2D Storage-Centric cable diagram 1. ID port Top terminator 3. Drive enclosure 4. HSV210-A/B controller pair 5. Bottom terminator 6. Ycable 7. Dual controller interconnect cable 20 EVA8x00 configurations

21 Mai n Mai n Figure 9 2C2D Multi-Product configuration 1. 3U blank 2. Drive enclosure 3. HSV210-A/B controller pair 4. Power distribution units The 2C2D Multi-Product configuration cable routing diagram is located in Figure 10. 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 21

22 Figure 10 EVA8x00 2C2D Multi-Product cable diagram 1. Top terminator 2. ID port 6 3. Ycable 4. Dual controller interconnect cable 5. Bottom terminator 6. Drive enclosure 7. HSV210-A/B controller pair 8. Power distribution units 2C2D features The following features are included in the 2C2D: One storage rack Two controllers Two 14 drive bay FC drive enclosures Seven 2 port enclosure address bus shelf ID expansion cables Eight AC strips Two 0U PDUs in Storage-Centric configuration; two 1U PDUs in Multi-Product configuration NOTE: Disks must be ordered separately. 22 EVA8x00 configurations

23 Table3Maximumstoragecapacitiesforthe2C2Dconfiguration Disk size Maximum capacity 72 GB 2.0 TB 146 GB 4.0 TB 250 GB 7.0 TB 300 GB 8.4 TB 500 GB 14.0 TB 2C6D configurations There are two 2C6D configurations: the Storage-Centric (Figure 11) and the Multi-Product (Figure 13). Each configuration provides a maximum storage capacity of 25.2 TB and contains a maximum of 84 disks. These configurations are available in a 42U rack and have two loop switches, two HSV210-A/B controllers, and six drive enclosures. The Storage-Centric configuration can be expanded (by adding drive enclosures) while remaining online. The Multi-Product more easily allows multiple products to be racked with the EVA, but can only be expanded by powering it down to make these expansion modifications Figure 11 2C6D Storage-Centric configuration 1. 3U blank 2. Drive enclosures 3. FC switches 4. HSV210-A/B controller pair The 2C6D Storage-Centric configuration cable routing diagram is located in Figure 12. 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 23

24 b Figure 12 EVA8x00 2C6D Storage-Centric configuration cable diagram 1. ID port Top terminator 3. Drive enclosure 4. FC switches 5. HSV210-A/B controller pair 6. Bottom terminator 7. Ycable 8. Dual controller interconnect cable 24 EVA8x00 configurations

25 Figure 13 2C6D Multi-Product configuration 1. 3U blank 2. Drive enclosures 3. FC switches 4. HSV210-A/B controller pair 5. Power distribution units The 2C6D Multi-Product configuration cable routing diagram is located in Figure 14. 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 25

26 Figure 14 EVA8x00 2C6D Multi-Product configuration cable diagram 1. Top terminator 2. ID port 8 3. Dual controller interconnect cable 4. Ycable 5. Bottom terminator 6. Drive enclosures 7. FC switches 8. HSV210-A/B controller pair 9. Power distribution units 2C6D features The following features are included in the 2C6D: One storage rack Two controllers Six 14 drive bay FC drive enclosures Four FC loop switches Seven 2 port enclosure address bus shelf ID expansion cables Eight AC strips Two 0U PDUs in Storage-Centric configuration; two 1U PDUs in Multi-Product configuration NOTE: Disks must be ordered separately. The 2C6D configuration can contain 84 disk drives has and a maximum storage capacity of 25.2 TB. See Table EVA8x00 configurations

27 Table4Maximumstoragecapacitiesforthe2C6Dconfiguration Disk size Maximum capacity 72 GB 6.0 TB 146 GB 12.0 TB 250 GB 21.0 TB 300 GB 25.2 TB 500 GB 42.0 TB 2C12D configuration The 2C12D configuration provides a maximum storage capacity of 50.4 TB. This configuration can contain a maximum of 168 disks. This configuration is available in a 42U rack and has two HSV210-A/B controllers, twelve drive enclosures, and four loop switches Figure 15 2C12D configuration 1. Drive enclosures 2. FC switches 3. HSV210-A/B controller pair The 2C12D cable routing diagram is located in Figure 16. 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 27

28 b Figure 16 EVA8x00 2C12D cable diagram 1. ID port Top terminator 3. Drive enclosure 4. FC switches 5. HSV210-A/B controller pair 6. Bottom terminator 7. Ycable 8. Dual controller interconnect cable 2C12D features The following features are included with the 2C12D configuration: One storage rack Two controllers drive bay FC drive enclosures Four FC loop switches Seven 2 port enclosure address bus shelf ID expansion cables Eight AC strips Two 0U PDUs NOTE: Disks must be ordered separately. 28 EVA8x00 configurations

29 Table 5 Maximum storage capacities for the 2C12D configuration Disk size Maximum capacity 72 GB 12.0 TB 146 GB 24.0 TB 250 GB 42.0 TB 300 GB 50.4 TB 500 GB 84.0 TB 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 29

30 30 EVA8x00 configurations

31 3 EVA6x00 configurations This chapter discusses the standard EVA6x00 configurations. Each section describes the placement of HSV controllers, drive enclosures, enclosure address bus shelf ID expansion cables, and copper Fibre Channel cables. NOTE: The configurations described in this guide are the preferred configurations. Other configurations may be used, but ensure that enclosure ID 7 is not used for any disk enclosure. 2C4D configuration The 2C4D configuration provides a maximum storage capacity of 16.8 TB. This configuration can contain a maximum of 56 disks. This configuration is available in a 42U, 41U, 36U, 33U, 25U, or 22U rack and has two HSV200-A/B controllers, four drive enclosures, and two loop switches. Figure 17 2C4D configuration 1. 3U blank 2. FC switches 3. HSV200-A/B controller pair 4. Drive enclosures The 2C4D cable routing diagram is located in Figure 18. 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 31

32 b Figure 18 EVA6x00 2C4D cable diagram 1. FC switches 2. HSV200-A/B controller pair 3. Drive enclosure 4. Bottom terminator 5. Dual controller interconnect cable 6. Ycable 7. ID port Top terminator 2C4D features The following features are included with the 2C4D configuration: One storage rack Four 14 drive bay FC drive enclosures One pair of FC-AL loop switches One 2 port enclosure address bus shelf ID expansion cable Six AC strips Two 1U PDUs (not shown in figure) NOTE: Disks must be ordered separately. 32 EVA6x00 configurations

33 Table6Maximumstoragecapacitiesforthe2C4Dconfiguration Disk size Maximum capacity 72 GB 4.0 TB 146 GB 8.1 TB 250 GB 14.0 TB 300 GB 16.8 TB 500 GB 28.0 TB 2C5D configuration The 2C5D configuration provides a maximum storage capacity of 21.0 TB. This configuration can contain amaximumof70disks.thisconfiguration is available in a 42U, 41U, 36U, 33U, 25U, or 22U rack and has two HSV200-A/B controllers, five drive enclosures, and two loop switches. Figure 19 2C5D configuration 1. 3U blank 2. Drive enclosures 3. Switch 4. HSV200-A/B controller pair The 2C5D cable routing diagram is located in Figure 20. 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 33

34 b Figure 20 EVA6x00 2C5D cable diagram 1. Drive enclosure 2. FC switches 3. HSV200-A/B controller pair 4. Bottom terminator 5. Dual controller interconnect cable 6. Ycable 7. ID port Top terminator 2C5D features The following features are included with the 2C5D configuration: One storage rack Five 14 drive bay FC drive enclosures One pair of FC-AL loop switches One 2 port enclosure address bus shelf ID expansion cable Six AC strips Two 1U PDUs (not shown in figure) NOTE: Disks must be ordered separately. 34 EVA6x00 configurations

35 Table 7 Maximum storage capacities for the 2C5D configuration Disk size Maximum capacity 72 GB 5.0 TB 146 GB 10.0 TB 250 GB 17.5 TB 300 GB 21.0 TB 500 GB 35.0 TB 2C6D configuration The 2C6D configuration provides a maximum storage capacity of 25.2 TB. This configuration can contain amaximumof84disks.thisconfiguration is available in a 42U, 41U, 36U, 33U, or 25U rack, and has two HSV200-A/B controllers, six drive enclosures, and four loop switches. Figure 21 2C6D configuration 1. 3U blank 2. Drive enclosures 3. FC switches 4. HSV200-A/B controller pair The 2C6D cable routing diagram is located in Figure 22. 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 35

36 b Figure 22 EVA6x00 2C6D cable diagram 1. Drive enclosure 2. FC switches 3. HSV200-A/B controller pair 4. Bottom terminator 5. Dual controller interconnect cable 6. Ycable 7. ID port Top terminator 2C6D features The following features are included with the 2C6D configuration: One storage rack Six 14 drive bay FC drive enclosures One pair of FC-AL loop switches One 2 port enclosure address bus shelf ID expansion cable Six AC strips Two 1U PDUs (not shown in figure) NOTE: Disks must be ordered separately. 36 EVA6x00 configurations

37 Table8Maximumstoragecapacitiesforthe2C6Dconfiguration Disk size Maximum capacity 72 GB 6.0 TB 146 GB 1.0 TB 250 GB 21.0 TB 300 GB 25.2 TB 500 GB 42.0 TB 2C7D configuration The 2C7D configuration provides a maximum storage capacity of 29.4 TB. This configuration can contain a maximum of 98 disks. This configuration is available in a 42U, 41U, 36U, or 33U rack and has two HSV200-A/B controllers, seven drive enclosures, and two loop switches. Figure 23 2C7D configuration 1. 3U blank 2. Drive enclosures 3. FC switches 4. HSV200-A/B controller pair The 2C7D cable routing diagram is located in Figure 24. 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 37

38 b Figure 24 EVA6x00 2C7D cable diagram 1. Drive enclosure 2. FC switches 3. HSV200-A/B controller pair 4. Bottom terminator 5. Dual controller interconnect cable 6. Ycable 7. ID port Top terminator 2C7D features The following features are included with the 2C7D configuration: One storage rack Seven 14 drive bay FC drive enclosures One pair offc-alloopswitches One 2 port enclosure address bus shelf ID expansion cable Six AC strips Two 1U PDUs (not shown in figure) NOTE: Disks must be ordered separately. 38 EVA6x00 configurations

39 Table9Maximumstoragecapacitiesforthe2C7Dconfiguration Disk size Maximum capacity 72 GB 7.0 TB 146 GB 14.0 TB 250 GB 24.5 TB 300 GB 29.4 TB 500 GB 49.0 TB 2C8D configuration The 2C8D configuration provides a maximum storage capacity of 33.6 TB. This configuration can contain a maximum of 112 disks. This configuration is available in a 42U, 41U, 36U, or 33U rack and has two HSV200-A/B controllers, eight drive enclosures, and two loop switches. Figure 25 2C8D configuration 1. 3U blank 2. Drive enclosures 3. FC switches 4. HSV200-A/B controller pair The 2C8D cable routing diagram is located in Figure 26. 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 39

40 b Figure 26 EVA6x00 2C8D cable diagram 1. Drive enclosure 2. FC switches 3. HSV200-A/B controller pair 4. Bottom terminator 5. Dual controller interconnect cable 6. Ycable 7. ID port Top terminator 2C8D features The following features are included with the 2C8D configuration: One storage rack Eight14 drivebayfcdriveenclosures One pair offc-alloopswitches One 2 port enclosure address bus cable Six AC strips Two 1U PDUs (not shown in figure) NOTE: Disks must be ordered separately. 40 EVA6x00 configurations

41 Table 10 Maximum storage capacities for the 2C8D configuration Disk size Maximum capacity 72 GB 8.0 TB 146 GB 16.0 TB 250 GB 28.0 TB 300 GB 33.6 TB 500 GB 56.0 TB 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 41

42 42 EVA6x00 configurations

43 4 EVA4x00 configurations This chapter briefly discusses the standard EVA4x00 configurations. Each section describes the placement of HSV controllers, drive enclosures, enclosure address bus shelf ID expansion cables, and copper Fibre Channel cables. NOTE: The configurations described in this guide are the preferred configurations. Other configurations may be used, but ensure that enclosure ID 7 is not used for any disk enclosure. 2C1D configuration The 2C1D configuration provides a maximum storage capacity of 4.2 TB. This configuration can contain a maximum of 14 disks. This configuration is available in a 42U, 41U, 36U, 33U, 25U, or 22U rack and has two HSV200-A/B controllers and one drive enclosure. Figure 27 2C1D configuration 1. 3U blank 2. HSV200-A/B controller pair 3. Drive enclosure The 2C1D cable routing diagram is located in Figure 28. 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 43

44 Figure 28 EVA4x00 2C1D cable diagram 1. HSV200-A/B controller pair 2. Drive enclosure 3. Bottom terminator 4. Dual controller interconnect cable 5. Ycable 6. ID port 6 7. Top terminator 2C1D features The following features are included with the 2C1D configuration: One storage rack One14 drivebayfcdriveenclosures One 2 port enclosure address bus shelf ID expansion cable Six AC strips Two 1U PDUs (not shown in figure) NOTE: Disks must be ordered separately. Table 11 Maximum storage capacities for the EVA4x00 2C1D configuration Disk size Maximum capacity 72 GB 1TB 146 GB 2TB 250 GB 3.5 TB 300 GB 4.2 TB 500 GB 7.0 TB 44 EVA4x00 configurations

45 2C2D configuration The 2C2D configuration provides a maximum storage capacity of 8.4 TB. This configuration can contain amaximumof28disks. This configuration is available in a 42U, 41U, 36U, 33U, 25U, or 22U rack and has two HSV200-A/B controllers and two drive enclosures. Figure 29 2C2D configuration 1. 3U blank 2. HSV200-A/B controller pair 3. Drive enclosures The 2C2D cable routing diagram is located in Figure 30. 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 45

46 b Figure 30 EVA4x00 2C2D cable diagram 1. HSV200-A/B controller pair 2. Drive enclosure 3. Bottom terminator 4. Dual controller interconnect cable 5. Ycable 6. ID port 6 7. Top terminator 2C2D features The following features are included with the 2C2D configuration: One storage rack Two 14 drive bay FC drive enclosures One 2 port enclosure address bus shelf ID expansion cable Six AC strips Two 1U PDUs (not shown in figure) NOTE: Disks must be ordered separately. Table 12 Maximum storage capacities for the 2C2D configuration Disk size Maximum capacity 72 GB 2.0 TB 146 GB 4.0 TB 250 GB 7.0 TB 300 GB 8.4 TB 500 GB 14.0 TB 46 EVA4x00 configurations

47 2C3D configuration The 2C3D configuration provides a maximum storage capacity of 12.6 TB. This configuration can contain amaximumof42disks. This configuration is available in a 42U, 41I, 36U, 33U, 25U, or 22U rack and has two HSV200-A/B controllers and three drive enclosures. Figure 31 2C3D configuration 1. 3U blank 2. HSV200-A/B controller pair 3. Drive enclosures The 2C3D cable routing diagram is located in Figure 32 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 47

48 b Figure 32 EVA4x00 2C3D cable diagram 1. HSV200-A/B controller pair 2. Drive enclosure 3. Bottom terminator 4. Dual controller interconnect cable 5. Ycable 6. ID port 6 7. Top terminator 2C3D features The following features are included with the 2C3D configuration: One storage rack Three 14 drive bay FC drive enclosures One 2 port enclosure address bus shelf ID expansion cable Six AC strips Two 1U PDUs (not shown in figure) NOTE: Disks must be ordered separately. Table 13 Maximum storage capacities for the 2C3D configuration Disk Size Maximum Capacity 72 GB 3.0 TB 146 GB 6.1 TB 250 GB 10.5 TB 300 GB 12.6 TB 500 GB 21.0 TB 48 EVA4x00 configurations

49 2C4D configuration The 2C4D configuration provides a maximum storage capacity of 16.8 TB. This configuration can contain a maximum of 56 disks. This configuration is available in a 42U, 41U, 36U, 33U, 25U, or 22U rack and has two HSV200-A/B controllers and four drive enclosures. Figure 33 2C4D configuration 1. 3U blank 2. HSV200-A/B controller pair 3. Drive enclosures The 2C4D cable routing diagram is located in Figure 34. 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 49

50 b Figure 34 EVA4x00 2C4D cable diagram 1. HSV200-A/B controller pair 2. Drive enclosure 3. Bottom terminator 4. Dual controller interconnect cable 5. Ycable 6. ID port 6 7. Top terminator 2C4D features The following features are included with the 2C4D configuration: One storage rack Four drive bay FC drive enclosures One 2 port enclosure address bus shelf ID expansion cable Six AC strips Two 1U PDUs (not shown in figure) NOTE: Disks must be ordered separately. 50 EVA4x00 configurations

51 Table 14 Maximum storage capacities for the 2C4D configuration Disk size Maximum capacity 72 GB 4.0 TB 146 GB 8.0 TB 250 GB 14.0 TB 300 GB 16.8 TB 500 GB 28.0 TB 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 51

52 52 EVA4x00 configurations

53 ASpecifications This appendix defines the physical, environmental, and power specifications of the EVA 4x00/6x00/8x00 storage systems. The following topics are included: Physical specifications Environmental specifications Power specifications Physical specifications This section describes the physical specifications of the drive enclosure and elements. Table 15 defines the dimensions and weights of the storage system components. Table 15 Enterprise Virtual Array 4x00/6x00/8x00 Product Dimensions, Weight and Clearance Physical Dimensions EVA4x00/8x00 2C2D (42U rack) EVA6x00/8x00 2C6D (42U rack) EVA8x00 2C12D (42U rack) Height in/cm (200.03) (200.03) (200.03) Width in/cm 23.7 (60.3) 23.7 (60.3) 23.7 (60.3) Depth in/cm 40.2 (102.2) 40.2 (102.2) 40.2 (102.2) Max Weight lb/kg 537 (244.1) 854 (308.2) 1290 (586.4 Req. Front Clearance in/cm Req. Rear Clearance in/cm 30 (76.2) 30 (76.2) 30 (76.2) 30 (76.2) 30 (76.2) 30 (76.2) EVA4x00/6x00/ 8x00 Controller Assembly 7.0/ / / /54.55 N/A N/A M5314B/ M5314C Drive Enclosure 5.25/ / / /32.21 N/A N/A Environmental specifications To ensure optimum product operation, you must maintain the operational environmental specifications listed in Table 16. The ambient temperature (the enclosure air intake or room temperature) is especially critical. 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 53

54 Table 16 Environmental specifications Operating Temperature 50 to 95 F (10 to 35 C) - Reduce rating by 1 F for each 1000 ft altitude (1.8 C/1,000 m) Shipping Temperature -40 to 150 F (-40 to 66 C) Humidity Shipping Humidity 10% to 90% non-condensing 5% to 90% non-condensing Altitude Up to 8,000 ft (2,400 m) Air Quality Not to exceed 500,000 particles per cubic foot of air at a size of 0.5 micron or larger Power specifications The input voltage is a function of the country-specific input voltage to Enterprise storage system rack power distribution units (PDUs). Enterprise storage system AC input line voltages defines the AC input power available to the drive enclosure power supplies. CAUTION: The AC power distribution within a rack ensures a balanced to each PDA and reduces the possibility of an overload condition. Changing the cabling to or from a PDM could cause an overload condition. Table 17 Enterprise storage system AC input line voltages Specification Minimal Nominal Maximum 60 Hz service AC Line Voltage 57 Hz 60 Hz 63 Hz AC Line Voltage Japan 180 VAC 202 VAC 220 VAC AC Line Voltage North America 180 VAC 208 VAC 220 VAC AC Line Voltage Europe 208VAC 240VAC 254VAC 50 Hz service AC Line Frequency 47 Hz 50 Hz 53 Hz AC Line Voltage Japan 180 VAC 202 VAC 220 VAC AC Line Voltage North America 190VAC 220VAC 235VAC AC Line Voltage North America 200 VAC 230 VAC 244 VAC AC Line Voltage Europe 208VAC 240VAC 254VAC 54 Specifications

55 Table 18 Power Data (North America/Europe/Japan) maximum configuration AC plug type (quantity 2) Number of phases Rated current Nominal Line Voltage RangeLineVoltage Line Frequency North America 3wireNEMANo.L6-30P,30amp(208to240V,50 60Hz, 30A) Europe 3 wire, 2poleIEC309,30amp,(220to240V,50Hz,32A) Single 200V-240V AC, 60Hz total, 4.25 A per power cord North America 208or230V Europe 230V Japan 206V 187 to 256V North America 60Hz,Europe 50Hz,Japan 50 or 60 Hz Table 19 EVA4x00 power specifications 208 Volts Specification 2C1D 2C2D 2C3D 2C4D Total System Wattage Typical 1 Failover Mode Total System BTU/hour Input Current (A) - Typical per system In Rush Current (A) Input Current (A) - Maximum per system Typical is described as a system in normal steady state operation (that is, both PDUs operating normally, the array reading/writing to disk drives in a production environment). This data represents fully populated drive enclosures with 15K RPM disk drives. Other drive types may vary slightly. For example, if you are using 10K RPM drives, the power specifications will be approximately 20% less than the 15K RPM drives. Table 20 EVA4x00 power specifications 230 Volts Specification 2C1D 2C2D 2C3D 2C4D Total System Wattage Typical 1 Failover Mode Total System BTU/hour Input Current (A) - Typical per system In Rush Current (A) Input Current (A) -Maximum per system Typical is described as a system in normal steady state operation (that is, both PDUs operating normally, the array reading/writing to disk drives in a production environment). This data represents fully populated drive enclosures with 15K RPM disk drives. Other drive types may vary slightly. For example, if you are using 10K RPM drives, the power specifications will be approximately 20% less than the 15K RPM drives. 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 55

56 Table 21 EVA6x00 power specifications 208 Volts Specification 2C4D 2C5D 2C6D 2C7D 2C8D Typical 1 Failover Mode Total System Wattage Total System BTU/hour Input Current (A) - Typical per system In Rush Current (A) Input Current (A) - Maximum per system Typical is described as a system in normal steady state operation (that is, both PDUs operating normally, the array reading/writing to disk drives in a production environment). This data represents fully populated drive enclosures with 15K RPM disk drives. Other drive types may vary slightly. For example, if you are using 10K RPM drives, the power specifications will be approximately 20% less than the 15K RPM drives. Table 22 EVA6x00 power specifications 230 Volts Specification 2C4D 2C5D 2C6D 2C7D 2C8D Typical 1 Failover Mode Total System Wattage Total System BTU/hour Input Current (A) - Typical per system In Rush Current (A) Input Current (A) - Maximum per system Typical is described as a system in normal steady state operation (that is, both PDUs operating normally, the array reading/writing to disk drives in a production environment). This data represents fully populated drive enclosures with 15K RPM disk drives. Other drive types may vary slightly. For example, if you are using 10K RPM drives, the power specifications will be approximately 20% less than the 15K RPM drives. 56 Specifications

57 Table 23 EVA8x00 power specifications 208 Volts Specification 2C2D 2C6D 2C8D 2C10D 2C12D Typical 1 Failover Mode Total System Wattage Total System BTU/hour Input Current (A) - Typical per system In Rush Current (A) Input Current (A) - Maximum per system Typical is described as a system in normal steady state operation (that is, both PDUs operating normally, the array reading/writing to disk drives in a production environment). This data represents fully populated drive enclosures with 15K RPM disk drives. Other drive types may vary slightly. For example, if you are using 10K RPM drives, the power specifications will be approximately 20% less than the 15K RPM drives. Table 24 EVA8x00 power specifications 230 Volts Specification 2C2D 2C6D 2C8D 2C10D 2C12D Typical 1 Failover Mode Total System Wattage Total System BTU/hour Input Current (A) - Typical per system In Rush Current (A) Input Current (A) - Maximum per system Typical is described as a system in normal steady state operation (that is, both PDUs operating normally, the array reading/writing to disk drives in a production environment). This data represents fully populated drive enclosures with 15K RPM disk drives. Other drive types may vary slightly. 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 57

58 58 Specifications

59 B Low-voltage Japanese cabinets General description This specification describes HP's requirements for low voltage EVA storage cabinets. These low voltage cabinets are configured with two redundant sets of PDUs in order to provide system required power. Each PDU set is limited to 2550 W at a minimum voltage of 108. Each PDU is limited to one power strip to limit the number of EVA component attachment to eight components per power PDU. Power strip additions will likely overload the PDU systems. Reference documents Reference documents are for informational purposes only. No requirement is implied by the inclusion or exclusion of reference documents. ANSI/EIA-310-D-1992, Cabinets, Racks, Panels and Associated Equipment EN60950:2000, Safety of Information Technology Equipment FCC Part 15 Code of Federal Regulations, Title 47, FCC Part 15 Radio Frequency Devices, Subpart B, Unintentional Radiators EN55022 (1998), Limits and Methods of Measurement of Radio Interference Characteristics of Information Technology Equipment EN55024 (1998), Information Technology Equipment Immunity Characteristics and Methods of Measurement EN61000, Electromagnetic Compatibility CAN/CSA-C22.2 No /3rd Edition, Safety of Information Technology Equipment All brands, names, trademarks and logos are the property of their respective owners. Power configurations There are two power configurations: the AD572A and the AD573A. The AD572A uses the HP StorageWorks 42U Low-voltage cabinet (Figure 35) and the AD573A uses the HP StorageWorks 36U Low-voltage cabinet (Figure 36). 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 59

60 42 U 41 U 40 U 39 U 38 U 37 U 36 U 35 U 34 U 33 U 32 U 31 U 30 U 29 U 28 U 27 U 26 U 25 U 24 U 23 U 22 U 21 U 20 U 19 U 18 U 17 U 16 U 15 U 14 U 13 U 12 U 11 U 10 U 09 U 08 U 07 U 06 U 05 U 04 U 03 U 02 U 01 U 0156a Figure 35 HP StorageWorks 42U low-voltage cabinet 36 U 35 U 34 U 33 U 32 U 31 U 30 U 29 U 28 U 27 U 26 U 25 U 24 U 23 U 22 U 21 U 20 U 19 U 18 U 17 U 16 U 15 U 14 U 13 U 12 U 11 U 10 U 09 U 08 U 07 U 06 U 05 U 04 U 03 U 02 U 01 U 0157a Figure 36 HP StorageWorks 36U low-voltage cabinet Specifications This section contains information on: EVA cabinet footprint Weights and dimensions of the low-voltage cabinets Center of gravity and stability Torque specifications Environmental specifications Electrical specifications 60 Low-voltage Japanese cabinets

61 EVA cabinet footprint Figure 37 shows the dimensions of the EVA cabinet footprint " 60.96" 37.46" 90 Figure 37 EVA cabinet footprint Weights and dimensions 0158a Table 25 shows the weights and dimensions for the 42U low-voltage cabinet. Table 26 shows the same information for the 36U low-voltage cabinet. Table 25 HP StorageWorks 42U low-voltage cabinet Weight lbs Height in Width in Depth in Assembly Packaged Assy Table 26 HP StorageWorks 36U low-voltage cbinet Weight lbs Height in Width in Depth in Assembly NA Packaged Assy NA Center of gravity Table 27 shows the center of gravity measurements for the 42U low-voltage cabinet. Table 28 shows the same information for the 36U low-voltage cabinet. The center of gravity of the assemblies is measured from the front mounting face of the vertical mounting rails, the top inside surface of the cabinet base, and the center of the cabinet (±1.5 inches). 4x00/6x00/8x00 Enterprise Virtual Array hardware configuration guide 61

62 Table 27 Center of gravity measurements 42U low-voltage cabinet Measurement Depth from mounting face of vertical mounting rails Height from inside base Inches Distance from cabinet center (viewing front of cabinet) 0.46 (left of center line) Table 28 Center of gravity measurements 36U low-voltage cabinet Measurement Depth from mounting face of vertical mounting rails Height from inside basena Distance from cabinet center (viewing front of cabinet) NA NA NA Inches Tip stability The system must pass tip stability testing for a 10 tip test and 250N side-force tip test per CAN/CSA-C22.2 No /3rd Edition, Safety of Information Technology Equipment. Results of tip and tilt calculations show that the testing of this configuration is not necessary. Center of gravity locations, within the 10 boundaries show no danger of tip. Force tip testing calculations indicate that the rear force tip test need not be performed. 62 Low-voltage Japanese cabinets