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P0YCG Dell 32GB PC5-38400 4800MTs ECC Dual Rank X8 DDR5 SDRAM 288 Pin Memory Module.

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Brief Overview of P0YCG

Dell P0YCG 32GB PC5-38400 4800MTs ECC Dual Rank X8 DDR5 SDRAM 288 Pin Memory Module. New (System) Pull with 1 year replacement warranty

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SKU/MPNP0YCGAvailability✅ In StockProcessing TimeUsually ships same day ManufacturerDell Manufacturer WarrantyNone Product/Item ConditionNew (System) Pull ServerOrbit Replacement Warranty1 Year Warranty
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Description

Dell P0YCG 32GB PC5-38400 DDR5 4800MT/s ECC Dual Rank X8

Dell P0YCG 32GB PC5-38400 4800MT/s DDR5 SDRAM is a high-performance registered memory module engineered for server, storage, and workstation applications where reliability, error correction, and consistent throughput are essential. Built to the DDR5 JEDEC standard, this 288-pin DIMM delivers 4800 mega-transfers per second (MT/s) and a nominal bandwidth of PC5-38400, providing a substantial uplift over previous DDR4 generations. The module’s ECC (Error Correcting Code) capabilities and Dual Rank X8 chip organization make it ideal for mission-critical systems that require data integrity and predictable performance under load.

Key Specifications at a Glance

  • Capacity: 32GB per DIMM
  • Memory Type: DDR5 SDRAM
  • Speed: PC5-38400 (4800MT/s)
  • Form Factor: 288-pin DIMM
  • ECC: Yes (Error-Correcting Code)
  • Rank: Dual Rank
  • Chip Organization: x8
  • Voltage: DDR5 standard (nominal voltage varies by module; typically 1.1V with on-die ECC and PMIC features)
  • Intended Use: Servers, enterprise workstations, storage controllers, high-availability systems

Memory Architecture: Dual Rank and X8 Organization Explained

Dual Rank modules contain two sets of memory chips that the memory controller can access independently. In practice, Dual Rank 32GB modules can present performance advantages over single-rank equivalents in systems and workloads that benefit from rank interleaving. The “X8” chip organization indicates each memory chip provides an 8-bit data path. This configuration balances density and electrical loading while maintaining broad compatibility with enterprise-class memory controllers. When combined with ECC, the Dual Rank X8 architecture contributes to both throughput optimization and a robust error-correction environment.

Rank Interleaving and Real-World Performance

Rank interleaving allows a memory controller to alternate access between ranks, reducing idle cycles and improving effective bandwidth for certain multi-threaded and I/O-heavy workloads. Enterprise database servers, virtualization hosts, and memory-bound scientific computations frequently benefit from Dual Rank modules, particularly when the platform supports interleaving across multiple DIMMs per channel. The result is smoother sustained performance during peak load periods and improved responsiveness for I/O-bound tasks.

Dual Rank Helps

  • Virtualization and dense VM consolidation
  • Large in-memory databases and caching layers
  • High-concurrency transactional workloads
  • Memory-intensive engineering or scientific simulations

Core Memory Attributes

Capacity and Configuration

The module is equipped with a substantial 32GB capacity, structured as a single module. This configuration is designed to facilitate substantial multitasking and data handling.

Architecture and Data Transfer

Cutting-Edge DDR5 SDRAM Design

Leveraging the latest DDR5 Synchronous Dynamic Random-Access Memory technology, this component provides a significant leap in bandwidth and efficiency over previous generations.

Exceptional Transfer Velocity

Operates at a swift 4800 Megatransfers per second (MT/s), aligning with the PC5-38400 (DDR5-4800) standard to ensure rapid data access and execution.

Advanced Signal and Rank Characteristics

Unbuffered Signal Processing

Features an Unbuffered (UDIMM) design, which minimizes latency between the memory controller and the DRAM chips, resulting in more direct and faster communication.

Dual Rank X8 Organization

The dual rank architecture with an x8 setup enhances signal integrity and allows for efficient loading, boosting overall system stability and performance potential.

Integrity and Physical Design

Error Correction Code (ECC) Support

Incorporates ECC functionality to automatically detect and correct common types of internal data corruption, a critical feature for mission-critical applications and data integrity.

Form Factor and Interface

Housed in a standard 288-pin UDIMM form factor, ensuring correct physical compatibility and secure installation within the appropriate motherboard memory slots.

Compatible Dell Systems and Workstations

This memory module is validated and certified for seamless integration and optimal performance within the following Dell computing platforms:

High-Performance Desktops

Alienware Gaming Rigs

• Alienware Aurora R13 Desktop
• Alienware Aurora R15 (Intel variant) Desktop

XPS Series Towers

• XPS 8950 Tower

Professional and Enterprise Solutions

OptiPlex Business Towers

• OptiPlex 7000 Tower
• OptiPlex XE4 Tower

Precision Workstation Towers

• Precision 3660 Tower
• Precision 3660 XE Tower

Compatibility Note

Some motherboard and server platforms have specific rules about rank population and maximum supported ranks per channel. Always verify the platform’s memory population guide to ensure optimal configuration, especially when mixing ranks or capacities.

ECC Technology: Reliability for Mission-Critical Systems

ECC (Error-Correcting Code) memory detects and corrects single-bit errors and detects multi-bit errors, drastically reducing the probability of silent data corruption. In enterprise and critical computing environments—such as financial services, healthcare systems, and cloud infrastructure—ECC is a baseline requirement. The Dell P0YCG module’s ECC support ensures that transient errors caused by electrical interference, cosmic rays, or manufacturing variations are corrected automatically, maintaining data integrity over prolonged operation.

Benefits of ECC in Production Environments

  • Prevents data corruption and system crashes caused by memory errors
  • Enables longer uptimes and higher availability
  • Supports regulatory and compliance requirements for data integrity
  • Reduces risk in large-scale deployments where error probability scales with installed memory

Performance Characteristics: Bandwidth, Latency, and Throughput

With an effective data rate of 4800MT/s, the PC5-38400 classification corresponds to roughly 38.4 GB/s of theoretical bandwidth per module under ideal conditions. DDR5 improves not just peak transfer rates but also overall efficiency through architectural changes including improved bank grouping, higher prefetch, and internal power-management enhancements. The real-world benefit is especially notable in memory-bound loads where sustained throughput and concurrency matter more than peak single-thread latency.

Latency Considerations

While DDR5 focuses on increasing transfer rates and bandwidth, latency characteristics may differ from DDR4. The absolute cycle latency can be higher due to increased prefetch and internal timing, but effective latency in multi-threaded or pipelined workloads often improves because higher bandwidth prevents queuing delays. Systems tuned for DDR5 (BIOS/firmware, memory timings, and memory channel utilization) will typically demonstrate the best balance of latency and throughput.

Tuning Tips for Optimal Throughput

  • Populate recommended DIMM slots to enable full channel bandwidth and interleaving.
  • Use identical modules (manufacturer, capacity, speed, rank) across channels for predictable behavior.
  • Upgrade firmware and platform microcode for DDR5-specific optimizations.
  • Monitor ECC and memory health counters to detect marginal DIMMs or platform issues early.nd thermal profiling are essential in dense server environments to prevent thermal throttling or reduced lifespan.

Best Practices for Cooling

  • Ensure uninterrupted airflow along DIMM channels; use blanking panels and directed fans when necessary.
  • Maintain server room environmental standards: recommended temperature ranges per vendor guidance.
  • Avoid mixing heavily-used DIMM slots with modules that block airflow or create hotspots.

Platform Compatibility and BIOS Support

The Dell P0YCG memory module is designed to align with Dell’s server and workstation platforms that support DDR5 ECC memory. Compatibility is influenced by platform memory controllers, BIOS/UEFI versions, and supported DIMM population rules. Enterprise platforms often release compatibility matrices and Qualified Vendor Lists (QVLs) indicating validated DIMMs and configurations. It’s recommended to reference the system vendor’s official documentation and apply the latest BIOS updates to ensure full support for 4800MT/s operation, advanced power features, and ECC behavior.

BIOS Settings and XMP/JEDEC Profiles

DDR5 modules typically default to JEDEC-standard timings and speeds. Some server-class modules can support higher profiles through vendor-specific configuration or platform-level optimizations. In production environments, stability and validated operation at JEDEC settings are preferred. When tuning memory speeds, always validate for sustained stability under synthetic and real-world workloads before committing changes to production.

Use Cases: Where Dell P0YCG Modules Shine

These modules are optimized for scenarios that demand both capacity and reliability. Typical use cases include:

  • Enterprise Servers: Database servers, application servers, virtualization hosts and hyperconverged nodes requiring stable memory and ECC protection.
  • Cloud Infrastructure: Multi-tenant environments and public cloud hardware where error resilience and predictable performance are necessary.
  • High-Performance Storage Controllers: Systems that manage large I/O flows and metadata indices benefit from high memory throughput and ECC protection.
  • Workstations for Content Creation and Engineering: Memory-intensive media rendering, CAD, and simulation workloads.
  • Edge Compute Appliances: Mission-critical edge deployments that require server-grade memory with compact footprint and high reliability.

Database and In-Memory Analytics

In-memory databases and analytics platforms enjoy lower query times and faster batch processing when backed by high-speed, high-capacity DDR5 memory. Dual Rank modules increase effective parallelism for memory access and can improve throughput for large-scale, parallel query execution and caching layers.

Installation and Handling Guidelines

Safe installation practices reduce the risk of damage to the modules and the host platform. Follow ESD-safe procedures, handle DIMMs by the edges, and avoid bending or touching gold fingers and chips. Insert modules fully into the DIMM slot until latches lock, and ensure the system is powered down and unplugged before making changes. After installation, run memory validation and stress tests to confirm all channels and ranks are detected correctly and that ECC is functioning as expected.

Quick Installation Checklist

  • Power down the system and disconnect mains.
  • Ground yourself with an antistatic wrist strap or use an ESD mat.
  • Consult the server/motherboard manual for the recommended DIMM population order.
  • Insert DIMMs evenly across channels to maintain balance and interleaving.
  • Re-apply power and validate POST (Power-On Self-Test) and BIOS detection.
  • Run memory stress tests (memtest variants, vendor diagnostics) to verify stability.

Testing, Validation, and Burn-In Procedures

Enterprise memory routinely undergoes thorough testing including thermal cycling, voltage margining, error injection testing for ECC verification, and long-duration burn-in to surface early-life failures. System integrators and data center operators commonly perform in-house validation to match their specific workloads and environmental conditions. If a module fails diagnostics or shows recurring correctable errors, it should be flagged for replacement to avoid potential future uncorrectable errors.

Vendor Diagnostics and Third-Party Tools

Use vendor-supplied diagnostics when available, as these tools understand platform-specific nuances and can interpret ECC logs. Third-party tools and stress-testing frameworks are also useful for cross-checking results and ensuring that modules behave consistently across different test suites.

Inventory Planning and Spare Strategy

  • Maintain a percentage of spare DIMMs proportional to deployed nodes and criticality of services.
  • Label spares and track part numbers to prevent accidental mixing with non-qualified modules.
  • Record module serials and deployment locations to simplify RMA and failure analysis.

Security and Data Integrity Policies Enabled by ECC Memory

ECC memory supports organizational policies for data integrity and compliance by reducing the risk of silent data corruption. For regulated industries—such as finance, healthcare, and public sector deployments—ECC is frequently a requirement in technical controls frameworks because it protects data at the hardware level. Integrating ECC memory into a larger defense-in-depth strategy helps preserve system state, logs, and transaction consistency across unexpected hardware anomalies.

Audit and Monitoring Recommendations

  • Enable telemetry for ECC events and aggregate logs centrally for trend analysis.
  • Set alert thresholds for correctable error rates that may indicate aging modules or platform issues.
  • Document remediation procedures, including hot-swap and scheduled maintenance windows when appropriate.

Comparing Dell P0YCG DDR5 Modules to Alternatives

When evaluating memory options, consider not only raw specifications but also ecosystem fit: platform validation, firmware support, vendor warranty, and long-term availability. Compared to earlier DDR4 modules, DDR5 PC5-38400 delivers significantly higher bandwidth and improved power architecture. Compared to other DDR5 SKUs, differences often come down to rank, chip organization, vendor validation, and firmware-level features. For enterprise buyers, verified operation on target platforms is frequently more valuable than marginal speed gains.

Points of Comparison

  • JEDEC vs. vendor-specific profiles and validation
  • Single Rank vs. Dual Rank trade-offs for specific workload patterns
  • x8 vs. x4 chip organizations with respect to density and electrical loading
  • Warranty coverage and RMA logistics

Operational Monitoring and Proactive Maintenance

Continuous monitoring of ECC events, memory temperature, and platform telemetry enables proactive maintenance and reduces unplanned downtime. Automated alerting that correlates memory error rates with workload patterns can indicate failing hardware before it causes uncorrectable errors. Regular audits of firmware and BIOS updates ensure compatibility with evolving memory standards and platform fixes.

Recommended Monitoring Metrics

  • Correctable ECC error rate per DIMM
  • Uncorrectable ECC event occurrences
  • Memory channel population and per-channel utilization
  • Module temperature and system inlet temperature

Deployment Planning: Rack, Chassis, and Density Considerations

When planning deployments that rely on high-capacity DDR5 memory, consider the trade-offs between maximizing per-node memory capacity and achieving the desired compute-to-memory ratio. Dense memory configurations may require additional cooling and power budget adjustments. Use vendor sizing tools to model thermal envelopes and power draw at scale.

Scale-Out vs. Scale-Up Strategies

Scale-out architectures favor many nodes with modest memory per node, whereas scale-up strategies concentrate memory and compute in fewer, larger systems. The Dell P0YCG 32GB modules provide a granular capacity option that supports both strategies depending on population rules and target workloads.

Regulatory and Environmental Compliance

Enterprise-grade memory typically conforms to relevant safety and environmental standards. Verify that modules meet RoHS, REACH, and other regional regulations as required by your organization. Proper disposal and recycling protocols for electronic components should be part of lifecycle planning.

End-of-Life and Refresh Cycles

Plan for regular refresh cycles based on vendor support windows, warranty periods, and evolving workload needs. Maintain a record of EOL notifications from the supplier to schedule orderly upgrades and minimize operational disruption.

Features
Manufacturer Warranty:
None
Product/Item Condition:
New (System) Pull
ServerOrbit Replacement Warranty:
1 Year Warranty