833107-001 HPE Proliant M710X 3.1Ghz 4-Core Server Cartridge.

HPE 833107-001 ProLiant M710X Server Cartridge

The HPE 833107-001 ProLiant M710X server cartridge — outfitted with the Intel E3-1585Lv5 3.1 GHz quad-core processor — is a high-density, purpose-built compute module engineered for environments that demand a compact footprint without compromising throughput or reliability. This category description focuses on the cartridge's role as a modular computing building block within HPE blade and cartridge ecosystems, clarifying how it fits into enterprise, telco, edge, and specialized compute deployments. Use this content to help buyers, systems integrators, and technicians quickly understand the attributes, benefits, compatibility, and typical use cases of the M710X cartridge while improving organic search visibility for product and category pages.

Key Features and Selling Points

The M710X cartridge balances performance, efficiency, and manageability, making it suitable for a wide variety of workloads. Highlighted features commonly sought by buyers include:

• Intel E3-1585Lv5 3.1GHz (4-core) — strong single-thread and multi-thread performance for light-to-medium virtualization and compute tasks.
• High-density form factor — optimized for chassis-based deployments where physical space and power budgets are constrained.
• Enterprise-grade reliability — built with HPE engineering standards for extended uptimes and predictable behavior in production environments.
• Remote management compatibility — integrates with HPE management tools for firmware updates, monitoring and lifecycle orchestration.
• Modular scalability — allows data centers and edge sites to add compute incrementally without massive reconfiguration.

Technical Specifications

Understanding the technical makeup of the M710X cartridge helps technical buyers and administrators match the component to workload requirements. Below are the core technical attributes and what each means for real-world operations.

Processor and Performance

At the heart of the cartridge is the Intel E3-1585Lv5, a 3.1 GHz quad-core CPU engineered for a balance of power efficiency and per-core performance. This processor is well-suited to tasks where clock speed and single-thread responsiveness matter — for example, latency-sensitive network functions, real-time analytics, and certain database workloads.

• Cores / Threads: 4 cores; capable of strong per-thread performance for compute-bound applications.
• Base Clock: 3.1 GHz — provides quick instruction throughput for transactional or single-thread-heavy loads.
• Cache and IPC: Server-focused cache hierarchy to reduce memory latency and improve throughput for common server tasks.

Performance Tuning and Optimization

Administrators can extract maximum value from the cartridge by tuning BIOS/firmware settings, adjusting power profiles, and optimizing application threading. Practical steps include:

• Enabling appropriate processor power states to balance performance and power consumption.
• Aligning operating system CPU affinity with workload patterns to reduce context switching.
• Using up-to-date microcode and firmware to ensure stability and performance patches are applied.

Memory, I/O, and Storage Support

Memory and I/O capabilities define how the cartridge ties into network and storage fabrics. The M710X supports server-class memory modules and a selection of local connectivity options catering to both ephemeral and persistent storage models.

• Memory: ECC-capable modules for data integrity under load; configure per workload demands.
• I/O: Integrated controllers and mezzanine or backplane connections provide network and storage interfaces tailored to the host chassis.
• Storage options: Local flash or disk expansion via chassis-integrated bays; ideal for caching or boot devices.

Memory Configuration Best Practices

For database caching, virtualization or memory-hungry applications, populate matched DIMM pairs to enable interleaving and maximize memory bandwidth. Ensure ECC is enabled at the firmware level to reduce silent data corruption risks in critical deployments.

Networking and Connectivity

Networking capabilities are a decisive element for cartridges deployed in clustered or distributed systems. Depending on chassis and backplane options, the M710X can support multiple NIC configurations, offload engines, and hardware acceleration for network processing.

• Integrated NICs: Multiple port options through the chassis backplane or integrated controllers.
• Offload features: Support for checksum, segmentation offload, or SR-IOV where supported by the firmware and OS.
• Compatibility: Works with standard HPE management and networking modules in compatible enclosures.

Compatibility and Integration

Compatibility matters: the M710X is designed to integrate seamlessly into specific HPE chassis and enclosure families. Verify chassis model support, backplane revision, and management controller compatibility before procurement. Typical integration checkpoints:

• Chassis model and firmware revisions.
• Interoperability with HPE iLO and lifecycle controllers.
• Power and cooling budgets for the target enclosure.

Supported Chassis and Enclosure Considerations

When building a rack or edge appliance using M710X cartridges, plan for:

• Slot population: Mixing cartridges with different power or thermal profiles can affect chassis balance — follow vendor population rules.
• Management modules: Ensure the system's baseboard management controller (BMC) or iLO version supports the cartridge's monitoring and update features.
• Firmware harmonization: Align firmware and driver levels across compute, networking, and storage modules to reduce incompatibilities.

Use Cases and Workload Fit

The ProLiant M710X cartridge is flexible and effective in a range of common and niche server roles. Below are practical deployment profiles where its characteristics excel.

Edge Compute and Remote Sites

Its compactness and efficient performance make the M710X a great choice for edge compute where rack space, power, and cooling are limited. It is ideal for processing local telemetry, running site-specific automation, or performing initial data reduction before sending aggregated results to a central cloud or data center.

Telecom and NFV (Network Functions Virtualization)

In telecom contexts, the cartridge can host virtual network functions (VNFs), control applications, and service orchestration components. Its strong per-core performance benefits latency-sensitive network functions and packet-processing tasks.

Virtualization and Container Hosts

For light-to-moderate virtualization workloads or for hosting short-lived containers at scale, use the M710X where density and manageability are more important than raw multi-socket, many-core throughput. Typical deployments include:

• Branch or satellite virtualization stacks.
• Dev/test clusters with frequent redeployments.
• Microservices hosts where many small services require isolation with low per-instance overhead.

Reliability, Availability and Serviceability (RAS)

Enterprise customers select HPE cartridges for their expected RAS features. The M710X follows HPE's conventions for error reporting, hot-swap compatibility at the chassis level, and remote diagnostics. Key aspects to consider:

• Error detection: ECC memory and processor reporting reduce silent failures.
• Predictive failure alerts: Monitoring tools can flag degrading components before critical outages.
• Serviceability: Cartridge design enables easier replacement and spare management in populated enclosures.

Power, Thermal and Physical Considerations

Dense deployments require careful power and thermal planning. Although M710X cartridges prioritize efficiency, cumulative power draw and chassis airflow patterns must be respected to maintain stable operations.

Power Budgeting

When planning a chassis populated with multiple M710X cartridges, calculate the aggregated maximum power draw and verify the enclosure's power supplies and distribution can support peak demands. Employ power management policies during non-peak hours to reduce consumption where feasible.

Thermal Management

Maintain recommended airflow paths and avoid mixing incompatible cartridge types that change the chassis thermal profile. Routine ambient temperature checks and chassis airflow monitoring help preserve component lifespan and prevent thermal throttling.

Security and Firmware Management

Security-conscious organizations should consider firmware integrity, secure boot options, and management-plane access controls. The cartridge supports vendor-supplied firmware management workflows; maintain a controlled update cadence and sign firmware where supported.

Best Practices for Secure Deployment

• Enable management-plane authentication and role-based access controls (RBAC).
• Maintain an offline, signed firmware repository for controlled rollouts.
• Use network segmentation for management traffic to isolate it from production data networks.