Enterprise Data Center Server
Enterprise-grade dedicated server infrastructure for workloads requiring predictable compute performance, high memory capacity, low-latency storage, redundant network connectivity, and defined hardware replacement procedures.
Designed for CTOs and IT infrastructure teams managing virtualization clusters, databases, analytics platforms, private cloud environments, high-throughput applications, and other sustained production workloads.
Enterprise Server Configuration Matrix
Configuration | CPU | Max RAM | Storage IOPS | Network Uplinks |
|---|---|---|---|---|
Enterprise Compute | Dual AMD EPYC 9004 | Up to 3 TB DDR5 ECC | PCIe Gen 5 NVMe, RAID 10 | Dual 25 Gbps redundant |
Enterprise Compute | Intel Xeon Scalable Gen 5 | Up to 3 TB DDR5 ECC | PCIe Gen 5 NVMe, RAID 10 | Dual 25 Gbps redundant |
Final CPU, DIMM population, NVMe quantity, RAID controller/HBA configuration, and network interface specification should be selected against the workload rather than treated as interchangeable options.
CPU Architecture
Dual-Socket AMD EPYC 9004
Dual AMD EPYC 9004 processors provide high core density and memory bandwidth for workloads that can distribute execution across multiple CPU sockets.
Typical use cases include:
- Virtualization and hypervisor hosts
- Relational and distributed databases
- Container orchestration platforms
- Analytics and data-processing workloads
- Private-cloud compute nodes
- High-concurrency application servers
The dual-socket topology should be evaluated alongside NUMA placement. Applications and virtual machines with locality-sensitive workloads can benefit when CPU threads and memory allocations remain within the appropriate NUMA domain.
Intel Xeon Scalable Gen 5
Intel Xeon Scalable Gen 5 configurations provide an alternative dual-socket platform for enterprise workloads where Intel-specific platform capabilities, software qualification, or existing operational standards influence the hardware selection.
CPU selection should be based on required core count, per-core performance, memory bandwidth, virtualization requirements, accelerator requirements, and licensing economics rather than processor branding alone.
Memory & Storage Architecture
Up to 3 TB DDR5 ECC Memory
The platform supports configurations of up to 3 TB DDR5 ECC RAM, subject to the selected CPU and motherboard configuration.
ECC—Error-Correcting Code—memory detects and corrects defined classes of memory errors during operation. This matters in production systems because an undetected memory bit error can propagate into application data, operating-system state, database pages, or virtual-machine memory.
ECC therefore provides an additional integrity control between physical DRAM and the software stack.
For infrastructure managers, the practical benefits include:
- Detection and correction of supported single-bit memory errors.
- Reduced probability that transient DRAM faults become application-visible data corruption.
- Hardware error reporting that can be incorporated into server monitoring and maintenance workflows.
- Greater suitability for systems operating continuously under high memory utilization.
ECC does not eliminate all memory failures or guarantee application-level data integrity. Database replication, filesystem integrity mechanisms, backups, and application-level redundancy remain separate controls.
PCIe Gen 5 NVMe Storage
PCIe Gen 5 NVMe SSDs provide substantially higher storage-interface bandwidth than earlier PCIe generations and use NVMe's parallel command architecture to reduce storage-stack overhead.
For workloads dominated by small random reads and writes, the relevant metric is not sequential throughput alone. IOPS, queue depth, latency, and workload read/write ratio determine practical performance.
A PCIe Gen 5 NVMe array can therefore be appropriate for:
- Transactional databases
- Virtual-machine datastores
- Search indexes
- High-concurrency application storage
- Log-intensive systems
- Data-processing pipelines with parallel I/O
RAID 10
RAID 10 combines mirroring and striping. Data is written across mirrored disk pairs, providing both parallel I/O paths and redundancy against the failure of an individual drive, subject to the specific failure pattern.
For write-intensive workloads, RAID 10 is generally preferable to parity-based RAID when the priority is consistent write latency and I/O concurrency rather than maximizing usable capacity.
Storage configuration should be sized according to:
Capacity → IOPS → latency → endurance → redundancy
rather than capacity alone.
Network Architecture
Dual 25 Gbps Redundant Uplinks
The standard network architecture provides two 25 Gbps uplinks, giving the server up to 50 Gbps of aggregate physical link capacity where the network topology and workload support link aggregation.
The two interfaces also provide a failure path for a single physical network connection, transceiver, switch port, or associated network component.
A redundant design should extend beyond the server NICs. For meaningful path redundancy, each uplink should terminate through independent network paths where the facility architecture permits it.
Tier-1 Carrier Connectivity
A premium Tier-1 carrier mix can provide multiple upstream paths for Internet-facing infrastructure.
Carrier diversity should be evaluated using measurable characteristics:
- Autonomous System diversity
- Upstream path diversity
- BGP routing policy
- Transit capacity
- Packet-loss characteristics
- Latency to target regions
- DDoS mitigation architecture
- IPv4 and IPv6 availability
Carrier count alone does not establish network resilience. Physically and logically independent paths are the relevant architectural property.
Chassis-Level Power Delivery Redundancy
Enterprise server configurations should use redundant power supplies connected to independent power feeds where the data-center infrastructure supports this topology.
In a typical dual-PSU configuration, each PSU can supply the server through a separate electrical path. A single PSU failure therefore does not necessarily require the server to shut down.
For infrastructure teams, this creates several layers of fault tolerance:
- PSU redundancy — protects against failure of an individual power-supply module.
- Feed redundancy — separates the server's power sources.
- PDU redundancy — reduces dependency on a single rack power-distribution unit.
- Facility redundancy — protects against failures upstream of the rack.
The server's actual resilience depends on the complete electrical topology. Two PSUs connected to the same failed PDU do not provide the same fault domain separation as PSUs connected to independent feeds.
Automated Deployment
PXE Provisioning
Automated PXE provisioning allows bare-metal systems to obtain their boot environment from the network and proceed through an automated operating-system installation workflow.
This supports infrastructure teams that need repeatable server deployment rather than manual installation.
A typical provisioning pipeline can include:
- Hardware allocation
- PXE boot
- OS image selection
- Automated disk partitioning
- RAID/storage configuration
- Network configuration
- Operating-system installation
- Configuration-management enrollment
- Monitoring-agent deployment
- Production handoff
Provisioning automation reduces configuration variance between servers and provides a repeatable process for scaling or replacing infrastructure.
Hardware Replacement SLA
100% Hardware Replacement Within 2 Hours
The defined service target is 100% hardware replacement within 2 hours for covered hardware failures.
This SLA should be interpreted operationally rather than as a generic availability statement. Hardware replacement time is the elapsed period from an accepted, covered hardware-failure event to replacement of the affected component, according to the applicable service definition.
Critical infrastructure teams should distinguish:
- Hardware replacement time
- Technician response time
- Component delivery time
- Service restoration time
- Network restoration time
- Application recovery time
A replacement SLA does not, by itself, guarantee application availability. Application-level resilience, clustering, replication, backups, and failover mechanisms remain architectural responsibilities.
Workload Suitability
Virtualization
High-memory dual-socket configurations are suitable for consolidating multiple virtual machines where CPU, memory, and I/O resources can be allocated according to workload requirements.
NUMA-aware VM placement should be used where workloads are sensitive to memory locality.
Database Infrastructure
NVMe RAID 10 is suited to databases requiring high random I/O concurrency and predictable write behavior.
Database architecture should still incorporate replication, backups, transaction-log protection, and appropriate recovery-point and recovery-time objectives.
Private Cloud
The combination of high core density, large ECC memory capacity, NVMe storage, and redundant networking provides a suitable physical layer for private-cloud compute clusters.
For clustered deployments, identical or deliberately standardized hardware configurations simplify capacity planning, automation, monitoring, and spare-parts management.
High-Concurrency Applications
Applications generating large numbers of concurrent storage operations can benefit from NVMe's parallel I/O architecture and high queue-depth performance.
Application benchmarks should measure actual workload characteristics rather than relying exclusively on vendor sequential-read/write figures.
Infrastructure Engineering Considerations
Before deployment, infrastructure teams should validate:
- CPU core and frequency requirements
- NUMA topology
- DIMM population and memory bandwidth
- Maximum required RAM
- NVMe endurance ratings
- RAID topology and usable capacity
- Random-read and random-write IOPS
- Storage latency under sustained load
- Network interface failover behavior
- 25 Gbps switch compatibility
- Power consumption at expected utilization
- PSU redundancy and rack-feed topology
- PXE and provisioning integration
- Hardware monitoring and alerting
- Spare-component availability
- Hardware replacement SLA coverage
- Backup and disaster-recovery requirements
Enterprise Server Architecture
The resulting platform is intended to provide a defined physical foundation for enterprise workloads:
Dual-socket compute → DDR5 ECC memory → PCIe Gen 5 NVMe RAID 10 → dual 25 Gbps networking → redundant power delivery → automated PXE deployment → defined hardware replacement SLA
The architecture addresses hardware-level failure domains while leaving workload-specific requirements—such as database replication, application failover, backup policy, and disaster recovery—to the appropriate software and infrastructure layers.
