Lenovo Flex System X6 Compute Nodes (7196)

The Lenovo Flex System X6 Compute Node, machine type 7196, is a high-performance scalable compute node that is designed to take on the most demanding workloads. The performance, flexibility, and resiliency features enable the X6 to run mission-critical workloads, such as key business applications, database, analytics, and large virtual machine deployments.

The X6 Compute Node family is composed of the x880 X6 and x480 X6. Each compute node contains two Intel Xeon E7 processors. The x880 X6 uses E7-8800 v3 processors and supports joining two or four x880 compute nodes to form a single 8-socket server with 192 DIMM slots. The x480 uses E7-4800 v3 processors and supports joining two x480 compute nodes to form a single 4-socket server with 96 DIMM slots.

Withdrawn: The Flex System X6 Compute Nodes are now withdrawn from marketing.

Suggested use: Mission-critical scalable databases, business analytics, virtualization, enterprise applications, and cloud applications.

Figure 1 shows the Flex System X6 Compute Node.

Figure 1. The Flex System X6 Compute Node

If you are using an application that requires significant computing power and you value the integration of components that Flex System offers, the X6 Compute Node family is an excellent choice. It offers the performance and reliability of the Intel Xeon E7 processor family and significant memory and I/O capacity. By using the X6 Compute Nodes, you can easily scale from two sockets to eight sockets by adding compute nodes and using the appropriate scalability connector on the front of the server.

The increasing demand for cloud-computing and analytics workloads by enterprises to meet social, mobile, and big data requirements drives innovation to find new ways to build informational systems. Clients are looking for cost-optimized and fit-for-purpose IT solutions that manage large amounts of data, easily scale performance, and provide enterprise class reliability.

Built on decades of innovation, Lenovo introduces its sixth generation of Enterprise X-Architecture® technology into the Flex System environment with the announcement of the Flex System X6 family of compute nodes. As with their rack-mount counterparts, the System x3850 X6 and x3950 X6, Flex System X6 Compute Nodes include the following benefits:

• Fast application performance means immediate access to information.
• Agile system design helps reduce acquisition costs and provides the ability to upgrade processor and memory technology at each refresh within the same chassis.
• Resilient platforms maximize application uptime and promote easy integration in virtual environments.

X6 servers continue to lead the way as the shift toward mission-critical scalable databases, business analytics, virtualization, enterprise applications, and cloud-computing applications accelerates.

Fast application performance

Each compute node offers the following features to boost performance:

• Based on the Intel Xeon processor E7 v3 product families, which improves productivity by offering superior system performance:
  • Two processors in each compute node, which are scalable up to eight processors in four compute nodes, depending on the processors that are used.
  • Each processor has up to 18 cores and 45 MB of L3 cache, depending on the processor that is selected.
  • Processors operate at up to 3.2 GHz.
  • Memory bus speeds up to 1600 MHz.
  • QPI links between processors up to 9.6 GTps.
• Supports up to 48 DIMM sockets, with 24 DIMMs per processor.
• Intelligent and adaptive system performance with Intel Turbo Boost Technology 2.0 allows processor cores to run at maximum speeds during peak workloads by temporarily going beyond processor thermal design power (TDP).
• Intel Hyper-Threading Technology boosts performance for multi-threaded applications by enabling simultaneous multi-threading within each processor core, up to two threads per core.
• Intel Virtualization Technology integrates hardware-level virtualization hooks with which operating system vendors can better use the hardware for virtualization workloads.
• Intel Advanced Vector Extensions (AVX) improve floating-point performance for compute-intensive technical and scientific applications.
• The usage of solid-state drives (SSDs) instead of traditional hard disk drives (HDDs) can improve I/O performance. An SSD can support up to 100 times more I/O operations per second (IOPS) than a typical HDD.
• PCI Express 3.0 I/O adapter slots that improve the theoretical maximum bandwidth by almost 100% (8 GTps per link that uses 128b/130b encoding) compared to the previous generation of PCI Express 2.0 (5 GTps per link that uses 8b/10b encoding).
• With Intel Integrated I/O Technology, the PCI Express 3.0 controller is integrated into the Intel Xeon processor E7 v3 and v2 product families. This integration helps reduce I/O latency and increase overall system performance.

Agile system design

The X6 Compute Nodes provides the following scalability and flexibility features:

• Innovative front-access scalable design where a customer can start with one x880 X6 Compute Node with two sockets and add processing power by inserting compute nodes into the chassis (up to a total of four, depending on the processor selection) and mounting a scalability connector to the front of all the compute nodes.
• The use of front-access scalability connectors means that you can easily scale the X6 system by adding compute nodes without removing compute nodes from the chassis.
• With the usage of E7-8800 v3 processors, upgrading from a 2-socket (one compute node) to 4-socket (two compute nodes) to 8-socket (four compute nodes) complex is as simple as inserting the extra compute nodes and attaching the appropriate scalability connector to the front of all the compute nodes. No tools are required. The use of E7-4800 v3 processors facilitates an upgrade from a 2-socket (one compute node) to 4-socket (two compute nodes) complex in the same way.
• By using compute nodes as modular building blocks, clients also can create the configuration that fits their application and environment needs, which reduces acquisition costs and gives them the flexibility to grow and modify their configuration later.
• By using 32 GB LRDIMMs, each compute node supports up to 1.5 TB of memory and up to 6 TB in a scaled complex.
• Up to 8x 1.8-inch SSD bays per compute node, and up to 24 bays in an 8-socket scaled complex, provides a flexible and scalable all-in-one platform to meet your increasing demands.
• Offers 4 PCIe 3.0 I/O slots per compute node, and up to 16 slots in an 8-socket scaled complex.

Resilient platform

The server provides many features to simplify serviceability and increase system uptime:

• Advanced Processor Recovery allows the system to automatically switch access and control of networking, management, and storage if there is a processor 1 failure, which provides higher availability and productivity.
• Advanced Page Retire proactively protects applications from corrupted pages in memory, which is crucial for scaling memory to terabytes.
• Redundant bit steering, memory mirroring, and memory rank sparing for redundancy if there is a non-correctable memory failure.
• The Intel Execute Disable Bit function can help prevent certain classes of malicious buffer overflow attacks when it is combined with a supported operating system.
• Intel Trusted Execution Technology provides enhanced security through hardware-based resistance to malicious software attacks, which allows an application to run in its own isolated space that is protected from all other software running on a system.
• Redundant Intel Platform Controller Hub (PCH) connections to the processors allow the platform to maintain access to networking, storage, and server management during a processor failure.
• Hot-swap drives support RAID redundancy for data protection and greater system uptime.
• Flex System Enterprise Chassis-based hot-swap power supplies and hot-swap dual-motor redundant fans provide availability for mission-critical applications.
• A light path diagnostics panel and individual light path LEDs quickly lead the technician to failed (or failing) components. This panel simplifies servicing, speeds up problem resolution, and helps improve system availability.
• Predictive Failure Analysis (PFA) detects when system components (processors, memory, HDDs, SSDs, fans, and power supplies) operate outside of standard thresholds and generates proactive alerts in advance of a possible failure, which increases uptime.
• Built-in Integrated Management Module Version II (IMM2) continuously monitors system parameters, triggers alerts, and performs recovery actions if there are failures to minimize downtime.
• Integrated industry-standard Unified Extensible Firmware Interface (UEFI) enables improved setup, configuration, and updates, and simplifies error handling.
• Integrated Trusted Platform Module (TPM) 1.2 support enables advanced cryptographic functions, such as digital signatures and remote attestation.
• Industry-standard Advanced Encryption Standard (AES) NI support for faster and stronger encryption.
• IBM Flex System Manager provides proactive systems management. It offers comprehensive systems management tools that help increase uptime, reduce costs, and improve productivity through advanced server management capabilities.
• SSDs offer better reliability than traditional mechanical HDDs for greater uptime.
• Built-in diagnostic tests that use Dynamic Systems Analysis (DSA) Preboot speed up troubleshooting tasks to reduce service time.
• Three-year customer-replaceable unit and onsite limited warranty, 9x5 next business day. Optional service upgrades are available.

Figure 2 shows the front of the server and Figure 3 shows the inside of the server.

Figure 2. Front view of the Flex System X6 Compute Node

Figure 3. Inside view of the Flex System X6 Compute Node

The following figure shows how four x880 Compute Nodes can be connected to form a single 8-socket complex. This configuration is for illustrative purposes only; in a production environment, you first install the compute nodes in the chassis and then attach the scalability connector to all four nodes.

Figure 4. Four x880 X6 Compute Nodes in an 8-socket complex

The following table lists the standard specifications.

The X6 Compute Nodes are shipped with the following items:

• Statement of Limited Warranty
• Important Notices
• Documentation flyer that contains the Installation and Service Guide

The following table lists the standard models.

Note: x280 X6 is now withdrawn from marketing.

** Processor detail: Processor quantity and model, cores, core speed, L3 cache, memory speed, and power consumption.
* The 2.5-inch drive bays can be replaced and expanded with more internal bays to support up to eight 1.8-inch SSDs.
† These models include one 4-port Embedded 10Gb Virtual Fabric Ethernet controller. Connections are routed by using Fabric Connectors. The Fabric Connectors preclude the use of an I/O adapter in I/O connectors 1 and 3, except the ServeRAID M5115 controller, which can be installed in slot 3.
‡ For these models, the standard DIMM is rated at 1600 MHz, but operates at 1333 MHz to match the processor memory speed.

The X6 Compute Nodes are supported in the Flex System Enterprise Chassis as listed in the following table.

Up to seven X6 compute nodes can be installed in the chassis in 10U of rack space. The following number of scaled systems can be installed:

• Two-socket systems: Up to seven systems in an Enterprise Chassis
• Four-socket systems: Up to three systems in an Enterprise Chassis
• Eight-socket systems: One system in an Enterprise Chassis

It might also be possible to populate the remaining bays within the chassis with other standard or double-wide nodes. The actual number of servers that can be installed in a chassis also depends on the following factors:

• The TDP power rating for the processors that are installed in the server
• The number of power supplies that are installed
• The capacity of the power supplies that are installed (2100 W or 2500 W)
• The power redundancy policy that is used (N+1 or N+N)

The following table provides guidelines about what number of X6 Compute Nodes can be installed. For more information, use the Power Configurator that is available at this website:
http://ibm.com/systems/bladecenter/resources/powerconfig.html

Consider the following points regarding the table:

• Green = No restriction to the number of X6 Compute Nodes that are installable.
• Yellow = Some bays must be left empty in the chassis.

The X6 compute nodes can scale to a 4-socket or 8-socket complex, depending on the processor that is installed into the node. Consider the following points:

• An x880 X6 node with Intel Xeon E7-8800 v3 family processors can scale up to an 8-socket configuration, and supports 2-socket, 4-socket, and 8-socket configurations. All the processors in these 2-socket, 4-socket, and 8-socket configurations must be identical.
• An x480 X6 node with Intel Xeon E7-4800 v3 family processors can scale up to a 4-socket configuration, and supports 2-socket and 4-socket configurations. All the processors in these 2-socket and 4-socket configurations must be identical.

The scaled X6 compute nodes are connected through a front interconnect system. The interconnection has a QPI bus and the sideband signals that are needed for correct operation.

There are three scalability connector assemblies for X6 nodes, as shown in the following table.

Table 5. Scalability options for X6 compute nodes

The following figure shows the Flex System x880 X6 4-Socket Scalability Connector and how it is used to connect two X6 servers (x880 or x480).

Figure 5. Flex System x880 X6 4-Socket Scalability Connector

The Flex System X6 2-Socket Performance Accelerator (00Y3868) takes the QPI links and other sideband signals that are used for multi-node X6 scaling complex and routes them back to the processors on a single X6 compute node. This configuration improves the performance of processor-to-processor communications.

The X6 compute nodes support the processor options that are listed in the following table. The server supports two Intel E7-4800 v3 or E7-8800 v3 processors depending on model. The table also shows which server models include each processor standard. If no corresponding model for a particular processor is listed, the processor is available only through the configure-to-order (CTO) process.

No part numbers: All Flex System X6 Compute Nodes have two processors as a standard. There is no option part number for processors, only feature codes.

Table 6. Processor options

* The first feature code is for CPU 1 and the second feature code is for CPU 2.
† The processors support two memory modes: RAS mode (also known as lockstep mode) and Performance mode (also known as independent mode). In Performance mode, the SMI2 link operates at twice the memory bus speed that is shown.

Lenovo DDR3 memory is compatibility tested and tuned for optimal performance and throughput. Lenovo memory specifications are integrated into the light path diagnostic tests for immediate system performance feedback and optimum system uptime. From a service and support standpoint, Lenovo memory automatically assumes the system warranty.

The X6 Compute Nodes support DDR3 memory operating at speeds up to 1600 MHz with 24 DIMMs per processor, as shown in the following examples:

• A 2-socket configuration supports up to 48 DIMMs.
• A 4-socket scaled configuration supports up to 96 DIMMs.
• An 8-socket configuration supports up to 192 DIMMs.

The following table lists the memory options that are available for X6 Compute Nodes.

Note: The 64GB LRDIMM, part number 46W0741, is now withdrawn from marketing.

Table 7. Memory options

† Not allowed if any eXFlash DIMMs (now withdrawn) are installed

Each processor has four memory channels to memory buffers that are implemented by using Scalable Memory Interface generation 2 (SMI2) chips. Each memory buffer has two memory channels and implements three DIMMs per channel.

The following rules apply when the memory configuration is selected:

• The X6 node supports RDIMMs and LRDIMMs.
• LRDIMMs and RDIMMs cannot be mixed within a single compute node or a scaled complex.
• 4 GB RDIMMs and LRDRIMMs cannot be used with eXFlash DIMMs (now withdrawn)
• Mixing 1.5 V and 1.35 V DIMMs in the same server is supported. In such a case, all DIMMs operate at 1.5 V.
• The processors support two memory modes: Performance mode and RAS (or lockstep) mode. In RAS (lockstep) mode, DIMMs must be installed in a pair, and the SMI link operates at the speed of the memory bus.
• When RDIMMs are installed, the maximum number of ranks that are supported per channel is eight. With LRDIMMs, the rank count per channel can be 32 (LRDIMM ranks are only 25% of the electrical load of an RDIMM rank).
• All DIMMs in all processor memory channels operate at the same speed, which is determined as the lowest value of the following components:
  • The memory mode used: Performance (independent) mode or RAS (lockstep) mode.
  • Memory speed that is supported by a specific processor.
  • Lowest of maximum operating speeds for selected memory configuration, depending on the rated speed, operating voltage, and quantity of DIMMs per channel, as listed in the “Maximum operating speed” section in the following table.

The following table shows the characteristics of the supported DIMMs. Tables cells that are highlighted in a gray indicate that the server supports higher memory frequencies or larger memory capacity (or both) than the Intel processor specification defines.

Memory speed: In performance mode, memory channels operate independently, and the SMI2 link operates at twice the DDR3 speed. In RAS mode, two channels operate synchronously, and the SMI2 link operates at the DDR3 speed.

* Maximum quantity per node when both processors are installed.

Chipkill and Redundant Bit Steering are supported in RAS mode. Chipkill is supported in Performance mode.

If memory mirroring is used, DIMMs must be installed in pairs for Performance mode (minimum of one pair per each processor) and quads for RAS mode. DIMMs in the pair/quad must be identical in type and size.

If memory rank sparing is used, a minimum of two single-rank or dual-rank DIMMs must be installed per populated channel (the DIMMs do not need to be identical). In rank sparing mode, one rank of a DIMM in each populated channel is reserved as spare memory. The size of a rank varies depending on the DIMMs that are installed.

The X6 compute node has two 2.5-inch front-accessible hot-swap drive bays that are accessible from the front of the server. These bays are connected to the integrated ServeRAID M1210e controller.

The ServeRAID M1210e controller includes the following features:

• Based on the LSI SAS 3004 12 Gbps SAS/SATA RAID-on-Chip (ROC) controller
• Four-port controller with 12 Gbps throughput per port
• PCIe x4 Gen 2 host interface
• Supports RAID levels 0, 1, 10, and 1E; optionally supports RAID 5 and RAID 50.

The two 2.5-inch front-accessible drive bays can be replaced with four 1.8-inch drive bay s, two 1.8-inch bays replacing each 2.5-inch bay, by using the ServeRAID M1200 Series Flex System Flash Kit for x880 X6. The part number for this upgrade is listed in the following table.

RAID 5 and RAID 50 are supported through a Features on Demand (FoD) upgrade, as listed in the following table. For 4-socket and 8-socket complexes, one FoD upgrade is required for each SAS controller on which you want to enable RAID 5.

Table 9. ServeRAID M1210e upgrades

The X6 compute node also supports up to eight 1.8-inch drives with the addition of the ServeRAID M5115 controller and SSD tray hardware. These components are described in the next section.

Supported drives are listed in the Internal drive options section.

An alternative to the M1210e integrated controller, the X6 compute nodes also support up to eight 1.8-inch SSDs combined with a ServeRAID M5115 SAS/SATA controller. ServeRAID M5100 Series Flex System Flash Kit for x880 X6 (44T1178) enables support for up to four internal 1.8-inch SSDs and for up to four 1.8-inch SSDs instead of two 2.5-inch HDDs. The ServeRAID M5115 adapter is included in this kit.

The eight SSDs are installed in the following locations:

• Four in the front of the system in place of the two 2.5-inch drive bays
• Four on trays above the memory banks

Tip: The front-accessible 1.8-inch drive trays in the ServeRAID M5100 Series Flex System Flash Kit are the same as the trays in the ServeRAID M1200 Series Flex System Flash Kit.

The M5115 adapter is installed in I/O bay 3 and can be installed even if the Compute Node Fabric Connector is installed (used to route the Embedded 10Gb Virtual Fabric Adapter to bays 1 and 2, as described in the "I/O expansion options" section). The ServeRAID M5115 cannot be installed if an adapter is installed in I/O adapter slot 3.

The kit ordering information is listed in the following table with supported FoD upgrades. For 4-socket and 8-socket complexes, one FoD upgrade is required for each compute node.

The ServeRAID M5115 controller has the following specifications:

• Eight internal 6 Gbps SAS/SATA ports.
• PCI Express 3.0 x8 host interface.
• 6 Gbps throughput per port.
• 800 MHz dual-core IBM PowerPC® processor with LSI SAS2208 6 Gbps RAID on Chip (ROC) controller.
• Support for RAID levels 0, 1, 10, 5, and 50 standard. Support for RAID 6 and 60 with optional upgrade using 90Y4411.
• Onboard 1 GB data cache (DDR3 that is running at 1333 MHz) with optional flash backup (MegaRAID CacheVault technology) as part of the Enablement Kit 46C9030.
• Support for SAS and SATA HDDs and SSDs.
• Support for intermixing SAS and SATA HDDs and SSDs. Mixing different types of drives in the same array (drive group) is not recommended.
• Support for self-encrypting drives (SEDs) with MegaRAID SafeStore.
• Optional support for SSD performance acceleration with MegaRAID FastPath (90Y4412)
• Support for up to 64 virtual drives, up to 128 drive groups, up to 16 virtual drives per one drive group, and up to 32 physical drives per one drive group.
• Support for logical unit number (LUN) sizes up to 64 TB.
• Configurable stripe size up to 1 MB.
• Compliant with Disk Data Format (DDF) configuration on disk (COD).
• S.M.A.R.T. support.
• MegaRAID Storage Manager management software.

The following optional FoD license upgrades are available for the ServeRAID M5115:

• RAID 6 Upgrade (90Y4410)

  Adds support for RAID 6 and RAID 60.

• Performance Upgrade (90Y4412)

  The Performance Upgrade for Flex System (implemented by using the LSI MegaRAID FastPath software) provides high-performance I/O acceleration for SSD-based virtual drives by using a lowlatency I/O path to increase the maximum I/O per second (IOPS) capability of the controller. This feature boosts the performance of applications with a highly random data storage access pattern, such as transactional databases.

Note: The SSD Caching Enabler (MegaRAID CacheCade Pro 2.0) is not supported because a combination of 1.8-inch SSDs and 2.5-inch HDDs is not supported.

The 2.5-inch drive bays support SAS or SATA HDDs or SATA SSDs. The following tables list the supported 2.5-inch drive options:

• Table 12: 2.5-inch hot-swap 12 Gb SAS/SATA HDDs
• Table 13: 2.5-inch hot-swap 6 Gb SAS/SATA HDDs
• Table 14: 2.5-inch hot-swap 6 Gb SAS/SATA SSDs

The supported 1.8-inch SSDs are listed in the following table. The use of 1.8-inch requires one of the following (but not both) items:

• ServeRAID M5100 Series Flex System Flash Kit for X6
• ServeRAID M1200 Series Flex System Flash Kit for X6

The server does not support an internal tape drive. However, it can be attached to external tape drives by using Fibre Channel connectivity.

The server does not support an internal optical drive option; however, you can connect an external USB optical drive. For information about available external optical drives from Lenovo, see this website:
http://support.lenovo.com/en/documents/pd011281

Alternatively, use the remote media feature of the IMMv2 and the Chassis Management Module.

Note: The USB port on the compute node supplies up to 0.5 A at 5 V. For devices that require more power, an extra power source is required.

Some models of the X6 compute nodes include one Embedded 4-port 10Gb Virtual Fabric controller (VFA), which is also known as LAN on Motherboard or LOM. This controller is built into the system board. Table 2 lists the models that include the Embedded 10Gb Virtual Fabric controllers. Each X6 compute node that includes the Embedded 10 Gb Virtual Fabric controllers also has a Compute Node Fabric Connector that is installed in each of I/O connectors 1 and 3 (and physically screwed onto the system board) to provide connectivity to the Enterprise Chassis midplane.

The Fabric Connector enables port 1 and 3 of embedded 10 Gb controller to be routed to I/O module bay 1, and port 2 and 4 of controller to be routed to I/O module bay 2. A compatible I/O module must be installed in those I/O module bays.

The Embedded 10Gb Virtual Fabric controller includes the following features:

• Based on a single Emulex XE104 ASIC
• Four 10 Gb Ethernet ports
• PCIe 3.0 x8 host bus interface
• Supports multiple virtual NIC (vNIC) functions
• TCP/IP Offload Engine (TOE enabled)
• SRIOV capable
• RDMA over TCP/IP capable
• RoCE capable
• iSCSI and FCoE upgrade offering through FoD

The following table lists the ordering information for the FoD upgrade, which enables the iSCSI and FCoE support on the Embedded 10Gb Virtual Fabric controller. Only one upgrade is needed per compute node.

Table 15. FoD upgrade for FCoE and iSCSI support

The X6 compute node has four I/O expansion connectors for attaching I/O adapters, as shown in the following figure. Installing I/O adapters allows the server to connect to switch modules in the Flex System Enterprise Chassis. The following figure also shows the location of the four I/O expansion slots.

Note: Slots 3 and 4 support only a subset of the adapters that are supported in slots 1 and 2. Slots 3 and 4 do not support dual-ASIC adapters because of the PCIe lanes that are routed to slots 3 and 4. For more information, see the Network adapters section.

Figure 6. Location of the I/O adapter slots in the X6 Compute Node

A compatible switch or pass-through module must be installed in the corresponding I/O bays in the chassis, as listed in the following table. Installing two switches means that all of the ports of the adapter are enabled, which improves performance and network availability.

For more information about supported switches, see the Flex System Interoperability Guide, which is available at: http://lenovopress.com/fsig

The following figure shows the location of the switch bays in the Flex System Enterprise Chassis.

Figure 7. Location of the switch bays in the Flex System Enterprise Chassis

The following figure shows how 2-port adapters are connected to switches that are installed in the chassis.

Figure 8. Logical layout of the interconnects between I/O adapters and I/O modules

As described in the Embedded 10Gb Virtual Fabric section, certain models (those with a model number of the form x5x) have a 10 Gb Ethernet controller on the system board. Its ports are routed to the midplane and switches that are installed in the chassis through two Compute Note Fabric Connectors that take the place of adapters in I/O slots 1 and 3.

Models without the Embedded 10Gb Virtual Fabric controller (those with a model number of the form x2x) do not include any other Ethernet connections to the Enterprise Chassis midplane as standard. Therefore, for those models, an I/O adapter must be installed to provide network connectivity between the server and the chassis midplane and ultimately to the network switches.

The following table lists the supported network adapters and upgrades and the slots in which they are each supported. Compatible switches must be installed in the corresponding bays of the chassis.

Note: The following adapters with two ASICs are not supported in slots 3 and 4:

• Flex System CN4058S 8-port 10Gb Virtual Fabric Adapter
• Flex System CN4054R 10Gb Virtual Fabric Adapter (withdrawn from marketing)
• Flex System EN2024 4-port 1Gb Ethernet Adapter

Table 17. Network adapters

Part number	Feature code	Flex System adapter	Number of ports	Maximum supported†	Slots supported
40 Gb Ethernet
90Y3482	A3HK	EN6132 2-port 40Gb Ethernet Adapter	2	4	1, 2, 3 4
10 Gb Ethernet
88Y5920	A4K3	CN4022 2-port 10Gb Converged Adapter	2	4	1, 2, 3, 4
01CV780	AU7X	Flex System CN4052S 2-port 10Gb Virtual Fabric Adapter Advanced (with FCoE and iSCSI)	2	4	1, 2, 3, 4
00AG540	ATBT	Flex System CN4052S 2-port 10Gb Virtual Fabric Adapter	2	4	1, 2, 3, 4
00JY804	A5RV	Flex System CN4052 Virtual Fabric Adapter SW Upgrade (FoD) (License to enable FCoE and iSCSI on 00AG540 or 00JY800)	License	4	Not applicable
01CV790	AU7Y	Flex System CN4054S 4-port 10Gb Virtual Fabric Adapter Advanced (with FCoE and iSCSI)	4	4	1, 2, 3, 4
00AG590	ATBS	Flex System CN4054S 4-port 10Gb Virtual Fabric Adapter	4	4	1, 2, 3, 4
00AG594	ATBU	Flex System CN4054S 4-port 10Gb Virtual Fabric Adapter SW Upgrade (License to enable FCoE and iSCSI on 00AG590)	License	4	Not applicable
90Y3558	A1R0	Flex System CN4054 Virtual Fabric Adapter (SW Upgrade) (License to enable FCoE and iSCSI on CN4054R, 00Y3306)	License	4	Not applicable
94Y5160	A4R6	CN4058S 8-port 10Gb Virtual Fabric Adapter	8	2	1, 2**
94Y5164	A4R9	CN4058S Virtual Fabric Adapter SW Upgrade (FoD) (FCoE/iSCSI upgrade for 94Y5160; 1 per adapter	License	2	Not applicable
90Y3466	A1QY	EN4132 2-port 10Gb Ethernet Adapter	2	4	1, 2, 3, 4
00AG530	A5RN	EN4172 2-port 10Gb Ethernet Adapter	2	4	1, 2, 3, 4
1 Gb Ethernet
49Y7900	A10Y	EN2024 4-port 1Gb Ethernet Adapter	4	2	1, 2**
InfiniBand
90Y3454	A1QZ	IB6132 2-port FDR InfiniBand Adapter	2	2	2, 4

† For X6 models with Embedded 10Gb Virtual Fabric controller standard, the Compute Node Fabric Connectors occupy the same space as the I/O adapters in I/O slots 1 and 3; adapters are not supported in those slots.
** Adapters with two ASICs are not supported in slots 3 and 4 because of the available PCIe lanes in those slots

For more information about adapter-to-switch compatibility, see the Flex System Interoperability Guide:
http://lenovopress.com/fsig

For more information, see the list of Lenovo Press Product Guides in the Adapter cards category:
http://lenovopress.com/flexsystem/adapters

The following table lists the storage host bus adapters (HBAs) that are supported by the compute node.

Note: The Flex System FC5054 4-port 16Gb FC adapter with two ASICs is not supported in slots 3 and 4.

Table 18. Storage adapters

Part number	Feature code	Description	Number of ports
Fibre Channel
88Y6370	A1BP	Flex System FC5022 2-port 16Gb FC Adapter	2
69Y1938	A1BM	Flex System FC3172 2-port 8Gb FC Adapter	2
95Y2375	A2N5	Flex System FC3052 2-port 8Gb FC Adapter	2
95Y2386	A45R	Flex System FC5052 2-port 16Gb FC Adapter	2
95Y2391	A45S	Flex System FC5054 4-port 16Gb FC Adapter	4
69Y1942	A1BQ	Flex System FC5172 2-port 16Gb FC Adapter	2

Server power is derived from the power supplies that are installed in the chassis. There are no server options regarding power supplies.

The X6 compute node supports the ESXi hypervisor on a USB memory key through two internal USB ports (as shown in Figure 3). The supported USB memory keys are listed in the following table.

Table 19. Virtualization options

For quick problem determination when you are physically at the server, the compute node offers the following 3-step guided path:

1. The Fault LED on the front panel.
2. The light path diagnostics panel.
3. LEDs next to key components on the system board.

The light path diagnostics panel is visible when you remove the server from the chassis. The panel is at the upper right side of the compute node, as shown in the following figure.

Figure 9. Location of X6 light path diagnostics panel

To illuminate the light path diagnostics LEDs, power off the compute node, slide it out of the chassis, and press the power button. The power button also serves as the light path diagnostics remind button when the server is removed from the chassis. The meanings of the LEDs are listed in the following table.

The server contains an Integrated Management Module II (IMM2), which interfaces with the advanced management module in the chassis. The combination of these two components provides advanced service-processor control, monitoring, and an alerting function. If an environmental condition exceeds a threshold or if a system component fails, LEDs on the system board are lit to help you diagnose the problem, the error is recorded in the event log, and you are alerted to the problem. A virtual presence capability comes standard for remote server management.

Remote server management is provided through the following industry-standard interfaces:

• Intelligent Platform Management Interface (IPMI) Version 2.0
• Simple Network Management Protocol (SNMP) Version 3
• Common Information Model (CIM)
• Web browser

The server also supports virtual media and remote control features, which provide the following functions:

• Remotely viewing video with graphics resolutions up to 1600x1200 at 75 Hz with up to 23 bits per pixel, regardless of the system state
• Remotely accessing the server by using the keyboard and mouse from a remote client
• Mapping the CD or DVD drive, diskette drive, and USB flash drive on a remote client, and mapping ISO and diskette image files as virtual drives that are available for use by the server
• Uploading a diskette image to the IMM2 memory and mapping it to the server as a virtual drive
• Capturing blue-screen errors

The server supports the following operating systems:

• Microsoft Windows Server 2012
• Microsoft Windows Server 2012 R2
• Microsoft Windows Server 2016
• Microsoft Windows Server, version 1709
• Red Hat Enterprise Linux 6.5 32-bit
• Red Hat Enterprise Linux 6.5 x64
• Red Hat Enterprise Linux 6.6 32-bit
• Red Hat Enterprise Linux 6.6 x64
• Red Hat Enterprise Linux 6.7 32-bit
• Red Hat Enterprise Linux 6.7 x64
• Red Hat Enterprise Linux 6.8 32-bit
• Red Hat Enterprise Linux 6.8 x64
• Red Hat Enterprise Linux 6.10 x64
• Red Hat Enterprise Linux 7.1
• Red Hat Enterprise Linux 7.2
• Red Hat Enterprise Linux 7.3
• Red Hat Enterprise Linux 7.4
• Red Hat Enterprise Linux 7.5
• Red Hat Enterprise Linux 7.6
• Red Hat Enterprise Linux 7.7
• Red Hat Enterprise Linux 7.8
• Red Hat Enterprise Linux 7.9
• SUSE Linux Enterprise Server 11 Xen x64 SP3
• SUSE Linux Enterprise Server 11 Xen x64 SP4
• SUSE Linux Enterprise Server 11 x64 SP3
• SUSE Linux Enterprise Server 11 x64 SP4
• SUSE Linux Enterprise Server 11 x86 SP3
• SUSE Linux Enterprise Server 11 x86 SP4
• SUSE Linux Enterprise Server 12
• SUSE Linux Enterprise Server 12 SP1
• SUSE Linux Enterprise Server 12 SP2
• SUSE Linux Enterprise Server 12 SP3
• SUSE Linux Enterprise Server 12 SP4
• SUSE Linux Enterprise Server 12 SP5
• SUSE Linux Enterprise Server 12 Xen
• SUSE Linux Enterprise Server 12 Xen SP1
• SUSE Linux Enterprise Server 12 Xen SP2
• SUSE Linux Enterprise Server 12 Xen SP3
• SUSE Linux Enterprise Server 12 Xen SP4
• SUSE Linux Enterprise Server 12 Xen SP5
• SUSE Linux Enterprise Server 15
• SUSE Linux Enterprise Server 15 SP1
• SUSE Linux Enterprise Server 15 SP2
• SUSE Linux Enterprise Server 15 SP3
• SUSE Linux Enterprise Server 15 SP4
• SUSE Linux Enterprise Server 15 Xen
• SUSE Linux Enterprise Server 15 Xen SP1
• SUSE Linux Enterprise Server 15 Xen SP2
• SUSE Linux Enterprise Server 15 Xen SP3
• SUSE Linux Enterprise Server 15 Xen SP4
• VMware ESXi 5.5
• VMware ESXi 5.5 U1
• VMware ESXi 5.5 U2
• VMware ESXi 5.5 U3
• VMware ESXi 6.0
• VMware ESXi 6.0 U1
• VMware ESXi 6.0 U2
• VMware ESXi 6.0 U3
• VMware ESXi 6.5
• VMware ESXi 6.5 U1
• VMware ESXi 6.5 U2
• VMware ESXi 6.5 U3

For a complete list of supported, certified and tested operating systems, plus additional details and links to relevant web sites, see the Operating System Interoperability Guide: https://lenovopress.com/osig#servers=x880-x6-x480-x6-x280-x6-7196

The X6 Compute Node features the following dimensions and weight (approximate) :

• Width: 435 mm (17.1 in.)
• Height 56 mm (2.1 in.)
• Depth 500 mm (19.7 in.)
• Maximum weight: 12.25 kg (27 lbs)

The Flex System X6 Compute Node complies with ASHRAE Class A3 specifications and features the following supported operating environment:

• Power on:
  • Temperature: 5°C - 40 °C (41°F - 104 °F)
  • Humidity, non-condensing: -12 °C dew point (10.4 °F) and 8 - 85% relative humidity
  • Maximum dew point: 24 °C (75 °F)
  • Maximum altitude: 3048 m (10,000 ft.)
  • Maximum rate of temperature change: 5 °C/hr (41 °F/hr)
• Power off:
  • Temperature: 5°C - 45 °C (41°F - 113 °F)
  • Relative humidity: 8% - 85%
  • Maximum dew point: 27 °C (80.6 °F)
• Storage (non-operating):
  • Temperature: 1°C - 60 °C (33.8°F - 140 °F)
  • Altitude: 3050 m (10,006 ft.)
  • Relative humidity: 5% - 80%
  • Maximum dew point: 29 °C (84.2 °F)
• Shipment (non-operating):
  • Temperature: -40°C - 60 °C (-40 °F to 140 °F)
  • Altitude: 10,700 m (35,105 ft)
  • Relative humidity: 5% - 100%
  • Maximum dew point: 29 °C (84.2 °F)

The system has a three-year warranty with 24x7 standard call center support and 9x5 Next Business Day onsite coverage. Also available are Lenovo Services warranty maintenance upgrades and post-warranty maintenance agreements, with a well-defined scope of services, including service hours, response time, term of service, and service agreement terms and conditions.

The following table explains warranty service definitions in more detail.

The following Lenovo warranty service upgrades are available:

• Warranty and maintenance service upgrades:
  • Three, four, or five years of 9x5 or 24x7 service coverage
  • Onsite response from next business day to 2 or 4 hours
  • Committed repair service
  • Warranty extension of up to 5 years
  • Post warranty extensions
• Committed Repair Service

  Committed Repair Services enhances the level of Warranty Service Upgrade or Post Warranty/Maintenance Service offering associated with the selected systems. Offerings vary and are available in select countries.

  • Priority handling to meet defined time frames to restore the failing machine to good working condition
  • Committed repair service levels are measured within the following coverage hours:
    • 24x7x6: Service performed 24 hours per day, 7 days per week, within 6 hours
    • 24x7x8: Service performed 24 hours per day, 7 days per week, within 8 hours
    • 24x7x24: Service performed 24 hours per day, 7 days per week, within 24 hours
• Hard Disk Drive Retention

  Lenovo’s Hard Disk Drive Retention (HDDR) service is a multi-drive hard drive retention offering that ensures your data is always under your control, regardless of the number of hard drives that are installed in your Lenovo server. In the unlikely event of a hard drive failure, you retain possession of your hard drive while Lenovo replaces the failed drive part. Your data stays safely on your premises, in your hands. The Hard Drive Retention service can be purchased in convenient bundles with our warranty upgrades and extensions.

• Microcode Support

  Keeping microcode current helps prevent hardware failures and security exposure. There are two levels of service: analysis of the installed base and analysis and update where required. Offerings vary by region and can be bundled with other warranty upgrades and extensions.

• Remote Technical Support Services (RTS)

  RTS provides comprehensive technical call center support for covered servers, storage, operating systems, and applications. Providing a single source for support of hardware and software issues, RTS can reduce problem resolution time, decreasing the cost to address technical problems and increasing uptime. Offerings are available for Windows, Linux, IBM Systems Director, VMware, Microsoft business applications, and Lenovo System x storage devices, and IBM OEM storage devices.

The server conforms to the following standards:

• ASHRAE Class A3
• Energy Star 2.1
• FCC - Verified to comply with Part 15 of the FCC Rules Class A
• Canada ICES-004, issue 3 Class A
• UL/IEC 60950-1
• CSA C22.2 No. 60950-1
• NOM-019
• Argentina IEC 60950-1
• Japan VCCI, Class A
• IEC 60950-1 (CB Certificate and CB Test Report)
• China CCC (GB4943); (GB9254, Class A); (GB17625.1)
• Taiwan BSMI CNS13438, Class A; CNS14336
• Australia/New Zealand AS/NZS CISPR 22, Class A
• Korea KN22, Class A, KN24
• Russia/GOST ME01, IEC 60950-1, GOST R 51318.22, GOST R 51318.249, GOST R 51317.3.2, and GOST R 51317.3.3
• IEC 60950-1 (CB Certificate and CB Test Report)
• CE Mark (EN55022 Class A, EN60950-1, EN55024, EN61000-3-2, and EN61000-3-3)
• CISPR 22, Class A
• TUV-GS (EN60950-1/IEC 60950-1 and EK1-ITB2000)

Why wait to obtain the technology you need now? No payments for 90 days and predictable, low monthly payments make it easy to budget for your Lenovo solution.

• Flexible

  Our in-depth knowledge of the products, services and various market segments allows us to offer greater flexibility in structures, documentation and end of lease options.

• 100% Solution Financing

  Financing your entire solution including hardware, software, and services, ensures more predictability in your project planning with fixed, manageable payments and low monthly payments.

• Device as a Service (DaaS)

  Leverage latest technology to advance your business. Customized solutions aligned to your needs. Flexibility to add equipment to support growth. Protect your technology with Lenovo's Premier Support service.

• 24/7 Asset management

  Manage your financed solutions with electronic access to your lease documents, payment histories, invoices and asset information.

• Fair Market Value (FMV) and $1 Purchase Option Leases

  Maximize your purchasing power with our lowest cost option. An FMV lease offers lower monthly payments than loans or lease-to-own financing. Think of an FMV lease as a rental. You have the flexibility at the end of the lease term to return the equipment, continue leasing it, or purchase it for the fair market value. In a $1 Out Purchase Option lease, you own the equipment. It is a good option when you are confident you will use the equipment for an extended period beyond the finance term. Both lease types have merits depending on your needs. We can help you determine which option will best meet your technological and budgetary goals.

Ask your Lenovo Financial Services representative about this promotion and how to submit a credit application. For the majority of credit applicants, we have enough information to deliver an instant decision and send a notification within minutes.

For more information, see the following resources:

• US Product Announcement:
  http://ibm.com/common/ssi/cgi-bin/ssialias?infotype=dd&subtype=ca&&htmlfid=897/ENUS115-082
• Flex System x480 X6 website:
  http://shop.lenovo.com/us/en/systems/servers/mission-critical/x480/
• Flex System x880 X6 product page:
  http://shop.lenovo.com/us/en/systems/servers/mission-critical/x880/
• Flex System Information Center:
  http://flexsystem.lenovofiles.com/help/index.jsp
• Flex System X6 Compute Node Installation and Service Guide:
  http://flexsystem.lenovofiles.com/help/index.jsp?topic=/com.lenovo.acc.7196.doc%2Fproduct_page.html
• ServerProven for Flex System:
  http://www.lenovo.com/us/en/serverproven/flexsystem.shtml
• Operating System Interoperability Guide (OSIG):
  https://lenovopress.com/osig#servers=x880-x6-x480-x6-x280-x6-7196
• Flex System Interoperability Guide:
  http://lenovopress.com/fsig
• xREF - System x Reference:
  http://lenovopress.com/xref
• Support Portal:
  http://datacentersupport.lenovo.com/products/servers/flex/x880-x6-compute-node/7196