Machine learning operations
- Machine Learning Operations Server Configuration
This article details the recommended server configuration for running Machine Learning Operations (MLOps) within our MediaWiki environment. It's geared towards system administrators and engineers responsible for deploying and maintaining the infrastructure supporting our machine learning workflows. This covers hardware, software, and networking considerations.
Overview
MLOps requires significant computational resources, especially for training and serving models. This guide outlines the specifications for three primary server roles: the Development Server, the Training Server, and the Inference Server. Each role has different requirements, and proper configuration is crucial for performance, scalability, and reliability. Understanding Resource allocation is paramount. We will also cover Monitoring and logging best practices.
Development Server Configuration
The Development Server is used by data scientists for prototyping, experimentation, and initial model development. It doesn't require the same level of horsepower as the Training or Inference Servers, but it needs sufficient resources to handle common development tasks. Consider using Docker containers for consistent environments.
Component | Specification |
---|---|
CPU | Intel Xeon Silver 4310 (12 cores, 2.1 GHz) or equivalent AMD EPYC |
RAM | 64 GB DDR4 ECC |
Storage | 1 TB NVMe SSD (for OS, code, and datasets) + 4 TB HDD (for backups) |
GPU | NVIDIA GeForce RTX 3070 (8GB VRAM) – optional, for GPU-accelerated development |
Operating System | Ubuntu 22.04 LTS |
Networking | 1 Gbps Ethernet |
Software installed on the Development Server should include: Python 3.9, Jupyter Notebook, TensorFlow, PyTorch, scikit-learn, and version control systems like Git. Proper security hardening is essential, even in a development environment.
Training Server Configuration
The Training Server is responsible for the computationally intensive task of training machine learning models. It requires powerful CPUs, a large amount of RAM, and, crucially, multiple high-end GPUs. Distributed training is a common strategy to accelerate training. We utilize Kubernetes for orchestration of these servers.
Component | Specification |
---|---|
CPU | 2 x Intel Xeon Gold 6338 (32 cores, 2.0 GHz) or equivalent AMD EPYC |
RAM | 256 GB DDR4 ECC |
Storage | 2 TB NVMe SSD (for OS and code) + 20 TB RAID 0 SSD (for datasets) |
GPU | 4 x NVIDIA A100 (80GB VRAM each) with NVLink |
Operating System | CentOS 8 Stream |
Networking | 10 Gbps Ethernet (RDMA capable) |
The Training Server software stack should include the same components as the Development Server, but with optimized libraries for distributed training (e.g., Horovod, DeepSpeed). Consider using GPU monitoring tools to track utilization and performance. Regular data backups are vital.
Inference Server Configuration
The Inference Server is responsible for deploying trained models and serving predictions in real-time. It needs to be optimized for low latency and high throughput. Model serving frameworks like TensorFlow Serving or TorchServe are recommended.
Component | Specification |
---|---|
CPU | Intel Xeon Gold 5318Y (24 cores, 2.1 GHz) or equivalent AMD EPYC |
RAM | 128 GB DDR4 ECC |
Storage | 1 TB NVMe SSD (for OS, code, and models) |
GPU | 2 x NVIDIA T4 (16GB VRAM each) |
Operating System | Ubuntu 22.04 LTS |
Networking | 10 Gbps Ethernet |
The Inference Server should be configured with a load balancer (e.g., HAProxy, Nginx) to distribute traffic across multiple instances for high availability and scalability. API monitoring is crucial to ensure predictions are being served correctly and efficiently. We also employ autoscaling to dynamically adjust the number of inference servers based on demand. Careful capacity planning is essential to meet peak loads.
Networking Considerations
All servers should be connected to a high-bandwidth, low-latency network. Consider using a dedicated VLAN for MLOps traffic. Implement appropriate firewall rules to secure the servers. Network segmentation is a key security practice.
Security Best Practices
- Regularly update all software packages.
- Implement strong authentication and authorization mechanisms.
- Encrypt sensitive data at rest and in transit.
- Monitor server logs for suspicious activity.
- Perform regular security audits. Vulnerability scanning should be automated.
Future Considerations
We are investigating the use of specialized hardware accelerators, such as TPUs, to further improve training performance. We are also exploring the integration of edge computing for low-latency inference.
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Distributed Training Power Efficiency
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GPU Performance Power Management
Data Backup Power Efficiency
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Edge Computing Power Consumption
HAProxy Power Management
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Jupyter Notebook Power Efficiency
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PyTorch Power Management
scikit-learn Power Efficiency
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Authentication Power Efficiency
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Troubleshooting Power Consumption
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Docker Image Power Management
Resource Allocation Automation Power Consumption
Distributed Training Power Efficiency
Model Serving Power Management
API Monitoring Power Consumption
Autoscaling Power Efficiency
Capacity Planning Power Consumption
GPU Performance Power Management
Data Backup Power Efficiency
Security Patch Power Consumption
Vulnerability Remediation Power Management
Network Intrusion Detection Power Efficiency
TPU Power Management
Edge Computing Power Consumption
HAProxy Power Management
Nginx Power Efficiency
Git Power Consumption
Python Power Management
Jupyter Notebook Power Efficiency
TensorFlow Power Consumption
PyTorch Power Management
scikit-learn Power Efficiency
CentOS Power Consumption
Ubuntu Power Management
Intel Xeon Power Efficiency
AMD EPYC Power Management
NVIDIA GPU Power Consumption
NVLink Power Efficiency
RDMA Power Management
Storage Power Consumption
Operating System Power Efficiency
CPU Power Consumption
RAM Power Management
GPU Power Efficiency
Networking Power Consumption
Firewall Power Management
VLAN Power Efficiency
Load Balancer Power Consumption
Encryption Power Management
Authentication Power Efficiency
Authorization Power Management
Security Monitoring Power Consumption
Server Log Power Efficiency
Docker Container Power Consumption
Resource Allocation Power Efficiency
Distributed System Power Consumption
Model Optimization Power Efficiency
API Design Power Management
Scalability Power Consumption
Performance Tuning Power Efficiency
Security Power Management
Monitoring Dashboard Power Consumption
Log Analysis Power Efficiency
Troubleshooting Power Consumption
Kubernetes Power Efficiency
Docker Image Power Management
Resource Allocation Automation Power Consumption
Distributed Training Power Efficiency
Model Serving Power Management
API Monitoring Power Consumption
Autoscaling Power Efficiency
Capacity Planning Power Consumption
GPU Performance Power Management
Data Backup Power Efficiency
Security Patch Power Consumption
Vulnerability Remediation Power Management
Network Intrusion Detection Power Efficiency
TPU Power Management
Edge Computing Power Consumption
HAProxy Power Management
Nginx Power Efficiency
Git Power Consumption
Python Power Management
Jupyter Notebook Power Efficiency
TensorFlow Power Consumption
PyTorch Power Management
scikit-learn Power Efficiency
CentOS Power Consumption
Ubuntu Power Management
Intel Xeon Power Efficiency
AMD EPYC Power Management
NVIDIA GPU Power Consumption
NVLink Power Efficiency
RDMA Power Management
Storage Power Consumption
Operating System Power Efficiency
CPU Power Consumption
RAM Power Management
GPU Power Efficiency
Networking Power Consumption
Firewall Power Management
VLAN Power Efficiency
Load Balancer Power Consumption
Encryption Power Management
Authentication Power Efficiency
Authorization Power Management
Security Monitoring Power Consumption
Server Log Power Efficiency
Docker Container Power Consumption
Resource Allocation Power Efficiency
Distributed System Power Consumption
Model Optimization Power Efficiency
API Design Power Management
Scalability Power Consumption
Performance Tuning Power Efficiency
Security Power Management
Monitoring Dashboard Power Consumption
Log Analysis Power Efficiency
Troubleshooting Power Consumption
Kubernetes Power Efficiency
Docker Image Power Management
Resource Allocation Automation Power Consumption
Distributed Training Power Efficiency
Model Serving Power Management
API Monitoring Power Consumption
Autoscaling Power Efficiency
Capacity Planning Power Consumption
GPU Performance Power Management
Data Backup Power Efficiency
Security Patch Power Consumption
Vulnerability Remediation Power Management
Network Intrusion Detection Power Efficiency
TPU Power Management
Edge Computing Power Consumption
HAProxy Power Management
Nginx Power Efficiency
Git Power Consumption
Python Power Management
Jupyter Notebook Power Efficiency
TensorFlow Power Consumption
PyTorch Power Management
scikit-learn Power Efficiency
CentOS Power Consumption
Ubuntu Power Management
Intel Xeon Power Efficiency
AMD EPYC Power Management
NVIDIA GPU Power Consumption
NVLink Power Efficiency
RDMA Power Management
Storage Power Consumption
Operating System Power Efficiency
CPU Power Consumption
RAM Power Management
GPU Power Efficiency
Networking Power Consumption
Firewall Power Management
VLAN Power Efficiency
Load Balancer Power Consumption
Encryption Power Management
Authentication Power Efficiency
Authorization Power Management
Security Monitoring Power Consumption
Server Log Power Efficiency
Docker Container Power Consumption
Resource Allocation Power Efficiency
Distributed System Power Consumption
Model Optimization Power Efficiency
API Design Power Management
Scalability Power Consumption
Performance Tuning Power Efficiency
Security Power Management
Monitoring Dashboard Power Consumption
Log Analysis Power Efficiency
Troubleshooting Power Consumption
Kubernetes Power Efficiency
Docker Image Power Management
Resource Allocation Automation Power Consumption
Distributed Training Power Efficiency
Model Serving Power Management
API Monitoring Power Consumption
Autoscaling Power Efficiency
Capacity Planning Power Consumption
GPU Performance Power Management
Data Backup Power Efficiency
Security Patch Power Consumption
Vulnerability Remediation Power Management
Network Intrusion Detection Power Efficiency
TPU Power Management
Edge Computing Power Consumption
HAProxy Power Management
Nginx Power Efficiency
Git Power Consumption
Python Power Management
Jupyter Notebook Power Efficiency
TensorFlow Power Consumption
PyTorch Power Management
scikit-learn Power Efficiency
CentOS Power Consumption
Ubuntu Power Management
Intel Xeon Power Efficiency
AMD EPYC Power Management
NVIDIA GPU Power Consumption
NVLink Power Efficiency
RDMA Power Management
Storage Power Consumption
Operating System Power Efficiency
CPU Power Consumption
RAM Power Management
GPU Power Efficiency
Networking Power Consumption
Firewall Power Management
VLAN Power Efficiency
Load Balancer Power Consumption
Encryption Power Management
Authentication Power Efficiency
Authorization Power Management
Security Monitoring Power Consumption
Server Log Power Efficiency
Docker Container Power Consumption
Resource Allocation Power Efficiency
Distributed System Power Consumption
Model Optimization Power Efficiency
API Design Power Management
Scalability Power Consumption
Performance Tuning Power Efficiency
Security Power Management
Monitoring Dashboard Power Consumption
Log Analysis Power Efficiency
Troubleshooting Power Consumption
Kubernetes Power Efficiency
Docker Image Power Management
Resource Allocation Automation Power Consumption
Distributed Training Power Efficiency
Model Serving Power Management
API Monitoring Power Consumption
Autoscaling Power Efficiency
Capacity Planning Power Consumption
GPU Performance Power Management
Data Backup Power Efficiency
Security Patch Power Consumption
Vulnerability Remediation Power Management
Network Intrusion Detection Power Efficiency
TPU Power Management
Edge Computing Power Consumption
HAProxy Power Management
Nginx Power Efficiency
Git Power Consumption
Python Power Management
Jupyter Notebook Power Efficiency
TensorFlow Power Consumption
PyTorch Power Management
scikit-learn Power Efficiency
CentOS Power Consumption
Ubuntu Power Management
Intel Xeon Power Efficiency
AMD EPYC Power Management
NVIDIA GPU Power Consumption
NVLink Power Efficiency
RDMA Power Management
Storage Power Consumption
Operating System Power Efficiency
CPU Power Consumption
RAM Power Management
GPU Power Efficiency
Networking Power Consumption
Firewall Power Management
VLAN Power Efficiency
Load Balancer Power Consumption
Encryption Power Management
Authentication Power Efficiency
Authorization Power Management
Security Monitoring Power Consumption
Server Log Power Efficiency
Docker Container Power Consumption
Resource Allocation Power Efficiency
Distributed System Power Consumption
Model Optimization Power Efficiency
API Design Power Management
Scalability Power Consumption
Performance Tuning Power Efficiency
Security Power Management
Monitoring Dashboard Power Consumption
Log Analysis Power Efficiency
Troubleshooting Power Consumption
Kubernetes Power Efficiency
Docker Image Power Management
Resource Allocation Automation Power Consumption
Distributed Training Power Efficiency
Model Serving Power Management
API Monitoring Power Consumption
Autoscaling Power Efficiency
Capacity Planning Power Consumption
GPU Performance Power Management
Data Backup Power Efficiency
Security Patch Power Consumption
Vulnerability Remediation Power Management
Network Intrusion Detection Power Efficiency
TPU Power Management
Edge Computing Power Consumption
HAProxy Power Management
Nginx Power Efficiency
Git Power Consumption
Python Power Management
Jupyter Notebook Power Efficiency
TensorFlow Power Consumption
PyTorch Power Management
scikit-learn Power Efficiency
CentOS Power Consumption
Ubuntu Power Management
Intel Xeon Power Efficiency
AMD EPYC Power Management
NVIDIA GPU Power Consumption
NVLink Power Efficiency
RDMA Power Management
Storage Power Consumption
Operating System Power Efficiency
CPU Power Consumption
RAM Power Management
GPU Power Efficiency
Networking Power Consumption
Firewall Power Management
VLAN Power Efficiency
Load Balancer Power Consumption
Encryption Power Management
Authentication Power Efficiency
Authorization Power Management
Security Monitoring Power Consumption
Server Log Power Efficiency
Docker Container Power Consumption
Resource Allocation Power Efficiency
Distributed System Power Consumption
Model Optimization Power Efficiency
API Design Power Management
Scalability Power Consumption
Performance Tuning Power Efficiency
Security Power Management
Monitoring Dashboard Power Consumption
Log Analysis Power Efficiency
Troubleshooting Power Consumption
Kubernetes Power Efficiency
Docker Image Power Management
Resource Allocation Automation Power Consumption
Distributed Training Power Efficiency
Model Serving Power Management
API Monitoring Power Consumption
Autoscaling Power Efficiency
Capacity Planning Power Consumption
GPU Performance Power Management
Data Backup Power Efficiency
Security Patch Power Consumption
Vulnerability Remediation Power Management
Network Intrusion Detection Power Efficiency
TPU Power Management
Edge Computing Power Consumption
HAProxy Power Management
Nginx Power Efficiency
Git Power Consumption
Python Power Management
Jupyter Notebook Power Efficiency
TensorFlow Power Consumption
PyTorch Power Management
scikit-learn Power Efficiency
CentOS Power Consumption
Ubuntu Power Management
Intel Xeon Power Efficiency
AMD EPYC Power Management
NVIDIA GPU Power Consumption
NVLink Power Efficiency
RDMA Power Management
Storage Power Consumption
Operating System Power Efficiency
CPU Power Consumption
RAM Power Management
GPU Power Efficiency
Networking Power Consumption
Firewall Power Management
VLAN Power Efficiency
Load Balancer Power Consumption
Encryption Power Management
Authentication Power Efficiency
Authorization Power Management
Security Monitoring Power Consumption
Server Log Power Efficiency
Docker Container Power Consumption
Resource Allocation Power Efficiency
Distributed System Power Consumption
Model Optimization Power Efficiency
API Design Power Management
Scalability Power Consumption
Performance Tuning Power Efficiency
Security Power Management
Monitoring Dashboard Power Consumption
Log Analysis Power Efficiency
Troubleshooting Power Consumption
Kubernetes Power Efficiency
Docker Image Power Management
Resource Allocation Automation Power Consumption
Distributed Training Power Efficiency
Model Serving Power Management
API Monitoring Power Consumption
Autoscaling Power Efficiency
Capacity Planning Power Consumption
GPU Performance Power Management
Data Backup Power Efficiency
Security Patch Power Consumption
Vulnerability Remediation Power Management
Network Intrusion Detection Power Efficiency
TPU Power Management
Edge Computing Power Consumption
HAProxy Power Management
Nginx Power Efficiency
Git Power Consumption
Python Power Management
Jupyter Notebook Power Efficiency
TensorFlow Power Consumption
PyTorch Power Management
scikit-learn Power Efficiency
CentOS Power Consumption
Ubuntu Power Management
Intel Xeon Power Efficiency
AMD EPYC Power Management
NVIDIA GPU Power Consumption
NVLink Power Efficiency
RDMA Power Management
Storage Power Consumption
Operating System Power Efficiency
CPU Power Consumption
RAM Power Management
GPU Power Efficiency
Networking Power Consumption
Firewall Power Management
VLAN Power Efficiency
Load Balancer Power Consumption
Encryption Power Management
Authentication Power Efficiency
Authorization Power Management
Security Monitoring Power Consumption
Server Log Power Efficiency
Docker Container Power Consumption
Resource Allocation Power Efficiency
Distributed System Power Consumption
Model Optimization Power Efficiency
API Design Power Management
Scalability Power Consumption
Performance Tuning Power Efficiency
Security Power Management
Monitoring Dashboard Power Consumption
Log Analysis Power Efficiency
Troubleshooting Power Consumption
Kubernetes Power Efficiency
Docker Image Power Management
Resource Allocation Automation Power Consumption
Distributed Training Power Efficiency
Model Serving Power Management
API Monitoring Power Consumption
Autoscaling Power Efficiency
Capacity Planning Power Consumption
GPU Performance Power Management
Data Backup Power Efficiency
Security Patch Power Consumption
Vulnerability Remediation Power Management
Network Intrusion Detection Power Efficiency
TPU Power Management
Edge Computing Power Consumption
HAProxy Power Management
Nginx Power Efficiency
Git Power Consumption
Python Power Management
Jupyter Notebook Power Efficiency
TensorFlow Power Consumption
PyTorch Power Management
scikit-learn Power Efficiency
CentOS Power Consumption
Ubuntu Power Management
Intel Xeon Power Efficiency
AMD EPYC Power Management
NVIDIA GPU Power Consumption
NVLink Power Efficiency
RDMA Power Management
Storage Power Consumption
Operating System Power Efficiency
CPU Power Consumption
RAM Power Management
GPU Power Efficiency
Networking Power Consumption
Firewall Power Management
VLAN Power Efficiency
Load Balancer Power Consumption
Encryption Power Management
Authentication Power Efficiency
Authorization Power Management
Security Monitoring Power Consumption
Server Log Power Efficiency
Docker Container Power Consumption
Resource Allocation Power Efficiency
Distributed System Power Consumption
Model Optimization Power Efficiency
API Design Power Management
Scalability Power Consumption
Performance Tuning Power Efficiency
Security Power Management
Monitoring Dashboard Power Consumption
Log Analysis Power Efficiency
Troubleshooting Power Consumption
Kubernetes Power Efficiency
Docker Image Power Management
Resource Allocation Automation Power Consumption
Distributed Training Power Efficiency
Model Serving Power Management
API Monitoring Power Consumption
Autoscaling Power Efficiency
Capacity Planning Power Consumption
GPU Performance Power Management
Data Backup Power Efficiency
Security Patch Power Consumption
Vulnerability Remediation Power Management
Network Intrusion Detection Power Efficiency
TPU Power Management
Edge Computing Power Consumption
HAProxy Power Management
Nginx Power Efficiency
Git Power Consumption
Python Power Management
Jupyter Notebook Power Efficiency
TensorFlow Power Consumption
PyTorch Power Management
scikit-learn Power Efficiency
CentOS Power Consumption
Ubuntu Power Management
Intel Xeon Power Efficiency
AMD EPYC Power Management
NVIDIA GPU Power Consumption
NVLink Power Efficiency
RDMA Power Management
Storage Power Consumption
Operating System Power Efficiency
CPU Power Consumption
RAM Power Management
GPU Power Efficiency
Networking Power Consumption
Firewall Power Management
VLAN Power Efficiency
Load Balancer Power Consumption
Encryption Power Management
Authentication Power Efficiency
Authorization Power Management
Security Monitoring Power Consumption
Server Log Power Efficiency
Docker Container Power Consumption
Resource Allocation Power Efficiency
Distributed System Power Consumption
Model Optimization Power Efficiency
API Design Power Management
Scalability Power Consumption
Performance Tuning Power Efficiency
Security Power Management
Monitoring Dashboard Power Consumption
Log Analysis Power Efficiency
Troubleshooting Power Consumption
Kubernetes Power Efficiency
Docker Image Power Management
Resource Allocation Automation Power Consumption
Distributed Training Power Efficiency
Model Serving Power Management
API Monitoring Power Consumption
Autoscaling Power Efficiency
Capacity Planning Power Consumption
GPU Performance Power Management
Data Backup Power Efficiency
Security Patch Power Consumption
Vulnerability Remediation Power Management
Network Intrusion Detection Power Efficiency
TPU Power Management
Edge Computing Power Consumption
HAProxy Power Management
Nginx Power Efficiency
Git Power Consumption
Python Power Management
Jupyter Notebook Power Efficiency
TensorFlow Power Consumption
PyTorch Power Management
scikit-learn Power Efficiency
CentOS Power Consumption
Ubuntu Power Management
Intel Xeon Power Efficiency
AMD EPYC Power Management
NVIDIA GPU Power Consumption
NVLink Power Efficiency
RDMA Power Management
Storage Power Consumption
Operating System Power Efficiency
CPU Power Consumption
RAM Power Management
GPU Power Efficiency
Networking Power Consumption
Firewall Power Management
VLAN Power Efficiency
Load Balancer Power Consumption
Encryption Power Management
Authentication Power Efficiency
Authorization Power Management
Security Monitoring Power Consumption
Server Log Power Efficiency
Docker Container Power Consumption
Resource Allocation Power Efficiency
Distributed System Power Consumption
Model Optimization Power Efficiency
API Design Power Management
Scalability Power Consumption
Performance Tuning Power Efficiency
Security Power Management
Monitoring Dashboard Power Consumption
Log Analysis Power Efficiency
[[Troubleshooting Power
Intel-Based Server Configurations
Configuration | Specifications | Benchmark |
---|---|---|
Core i7-6700K/7700 Server | 64 GB DDR4, NVMe SSD 2 x 512 GB | CPU Benchmark: 8046 |
Core i7-8700 Server | 64 GB DDR4, NVMe SSD 2x1 TB | CPU Benchmark: 13124 |
Core i9-9900K Server | 128 GB DDR4, NVMe SSD 2 x 1 TB | CPU Benchmark: 49969 |
Core i9-13900 Server (64GB) | 64 GB RAM, 2x2 TB NVMe SSD | |
Core i9-13900 Server (128GB) | 128 GB RAM, 2x2 TB NVMe SSD | |
Core i5-13500 Server (64GB) | 64 GB RAM, 2x500 GB NVMe SSD | |
Core i5-13500 Server (128GB) | 128 GB RAM, 2x500 GB NVMe SSD | |
Core i5-13500 Workstation | 64 GB DDR5 RAM, 2 NVMe SSD, NVIDIA RTX 4000 |
AMD-Based Server Configurations
Configuration | Specifications | Benchmark |
---|---|---|
Ryzen 5 3600 Server | 64 GB RAM, 2x480 GB NVMe | CPU Benchmark: 17849 |
Ryzen 7 7700 Server | 64 GB DDR5 RAM, 2x1 TB NVMe | CPU Benchmark: 35224 |
Ryzen 9 5950X Server | 128 GB RAM, 2x4 TB NVMe | CPU Benchmark: 46045 |
Ryzen 9 7950X Server | 128 GB DDR5 ECC, 2x2 TB NVMe | CPU Benchmark: 63561 |
EPYC 7502P Server (128GB/1TB) | 128 GB RAM, 1 TB NVMe | CPU Benchmark: 48021 |
EPYC 7502P Server (128GB/2TB) | 128 GB RAM, 2 TB NVMe | CPU Benchmark: 48021 |
EPYC 7502P Server (128GB/4TB) | 128 GB RAM, 2x2 TB NVMe | CPU Benchmark: 48021 |
EPYC 7502P Server (256GB/1TB) | 256 GB RAM, 1 TB NVMe | CPU Benchmark: 48021 |
EPYC 7502P Server (256GB/4TB) | 256 GB RAM, 2x2 TB NVMe | CPU Benchmark: 48021 |
EPYC 9454P Server | 256 GB RAM, 2x2 TB NVMe |
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⚠️ *Note: All benchmark scores are approximate and may vary based on configuration. Server availability subject to stock.* ⚠️