Intel Xeon Processor SR1XN 2.6GHz 30MB L3 QPI 3 22NM 135W

Clock Speed: 2.6GHz

Improved Performance

With a clock speed of 2.6GHz, the Intel SR1XN Processor offers exceptional performance for a wide range of computing tasks. The higher clock speed enables the processor to execute instructions at a faster rate, resulting in quicker response times and improved overall system performance. Whether you are running demanding applications, playing graphics-intensive games, or multitasking with several programs simultaneously, the 2.6GHz clock speed ensures smooth and efficient operation.

Intel Server Processor: SR1XN (E5-2690V3)

Technical Specifications

• Processor Cores: 12 cores for high-efficiency multitasking
• Base Clock Speed: 2.6 GHz for reliable performance
• Max Turbo Frequency: 3.5 GHz to handle intensive tasks
• QuickPath Interconnect Speed (QPI): 9.6 GT/s for optimized data transfer
• Number of QPI Links: 2 links to support faster communication
• Instruction Set: 64-bit architecture ensuring compatibility with modern systems
• Instruction Set Extensions: Intel® AVX for enhanced performance in compute-intensive applications
• L3 Cache: 30 MB for reduced latency and quicker data access
• Lithography: 22nm technology for energy-efficient performance
• Thermal Design Power (TDP): 135W to balance power consumption with performance
• Socket Type: FCLGA2011-3, compatible with a wide range of server motherboards

Comparison with Similar Processors

Processor Family Overview

• Belongs to Intel’s E5 v3 family, known for its robust performance in data center applications

Core Count and Clock Speed Analysis

• Offers 12 cores and a balanced 2.6 GHz clock speed, ideal for multi-threaded workloads
• Higher core count compared to earlier generations

Cache and Memory Differences

• Boasts 30MB L3 cache, outperforming many similar models in its class
• Supports DDR4 memory for faster data processing

Power Efficiency

• 135W TDP ensures a balance between performance and energy usage, making it more power-efficient than older models

Performance Benchmarks

• Proven to handle high-demand server workloads with impressive results in multi-core benchmarks

Price Comparison

• Competitively priced for the performance and features it offers

Overall Recommendations

• Ideal choice for data centers and servers requiring reliable performance and multi-threading capabilities

Compatibility and System Requirements

Socket and Motherboard Compatibility

• Compatible with motherboards supporting FCLGA2011-3 socket
• Recommended for use with Intel® C610 chipset motherboards

Memory and Power Supply Requirements

• Supports DDR4 memory modules for high-speed data transfer
• Ensure a compatible power supply unit (PSU) to handle the 135W TDP

Operating System and BIOS/UEFI Requirements

• Fully compatible with modern server operating systems, including Linux and Windows Server editions
• Ensure BIOS/UEFI is updated to support the processor’s features

Recommended Configurations

• Best suited for high-performance servers, virtualization environments, and compute-intensive workloads

Upgrade and Installation Tips

• Ensure the motherboard is equipped with a compatible socket and chipset before upgrading
• Follow thermal guidelines for optimal performance, particularly during installation

Performance Features

Core and Clock Speed Efficiency

• 12-core architecture with a 2.6 GHz base frequency, delivering excellent multi-core performance

L3 Cache and Memory Support

• 30MB L3 cache and DDR4 support enhance data processing speed and reduce latency

Advanced Features

• Intel® Hyper-Threading for improved multitasking
• Turbo Boost technology to dynamically increase clock speed based on workload
• Intel® Virtualization Technology (VT-x) support for efficient virtual machine performance
• AES-NI and AVX support for secure and high-performance encryption

Performance Comparisons

• Stands out in multi-core benchmarks compared to its predecessor, the E5-2690 v2
• Notable improvement in power efficiency and virtualization performance over previous generations

Overclocking Capabilities

• Limited overclocking potential, but can still handle moderate increases in clock speed under the right conditions

Efficient Task Execution

The 2.6GHz clock speed allows the Intel SR1XN Processor to handle tasks more efficiently. It enables faster data retrieval from memory, ensuring that the processor can quickly access the required information and execute instructions without any significant delay. This efficient task execution translates into reduced wait times and enhanced user experience, particularly for resource-intensive applications that require substantial processing power.

Seamless Multitasking

Multitasking is a common requirement for many users, whether it involves running multiple applications simultaneously or handling demanding tasks like video editing or 3D rendering. The 2.6GHz clock speed of the Intel SR1XN Processor empowers users to seamlessly switch between various tasks without experiencing significant performance degradation. It ensures that each application receives sufficient processing power to operate smoothly, enhancing productivity and workflow efficiency.

Smooth Gaming Experience

Gamers often demand high-performance processors to enjoy immersive gaming experiences. The 2.6GHz clock speed of the Intel SR1XN Processor provides the necessary horsepower to handle graphically demanding games with ease. It ensures smooth frame rates, reduces input lag, and minimizes stuttering or freezing during gameplay, allowing gamers to fully immerse themselves in their favorite virtual worlds.

Overclocking Capabilities

For users who desire even more performance, the Intel SR1XN Processor offers overclocking capabilities. Overclocking involves increasing the clock speed beyond the default settings, pushing the processor's performance to its limits. With proper cooling and system configuration, users can take advantage of the processor's 2.6GHz clock speed and potentially achieve even higher frequencies, unlocking additional performance gains for specific applications or tasks.

Real-Time Application Responsiveness

The 2.6GHz clock speed of the Intel SR1XN Processor ensures real-time application responsiveness, enabling users to interact with software and experience instant feedback. Whether it's browsing the web, editing documents, or working with multimedia content, the fast clock speed ensures that every action is executed promptly, enhancing overall user satisfaction and productivity.

Optimized for Single-Threaded Applications

Many applications still rely heavily on single-threaded performance, meaning they can only utilize a single processor core effectively. In such cases, a higher clock speed becomes crucial for achieving optimal performance. The 2.6GHz clock speed of the Intel SR1XN Processor caters to these single-threaded applications, delivering exceptional performance and ensuring that users can experience the full potential of their software.

Energy Efficiency

Despite its high clock speed, the Intel SR1XN Processor maintains excellent energy efficiency. It intelligently balances power consumption based on workload demands, allowing users to enjoy enhanced performance without excessively draining power or increasing energy costs. This energy-efficient design ensures that users can have a powerful computing experience while minimizing environmental impact.

Cache: 30MB L3

Improved Data Access

The Intel SR1XN Processor features a generous 30MB L3 cache, which significantly enhances data access speeds. The cache acts as a high-speed storage area for frequently accessed instructions and data, reducing the time it takes for the processor to retrieve information from the main memory. With a larger cache, the processor can store more data closer to the processing cores, resulting in faster and more efficient data access.

Reduced Memory Latency

By storing frequently accessed data in the L3 cache, the Intel SR1XN Processor reduces memory latency. Memory latency refers to the time it takes for the processor to access data from the main memory. With a larger cache, the processor can avoid accessing slower main memory, leading to reduced latency and faster overall system performance. This is particularly beneficial for applications that heavily rely on random access memory (RAM), such as databases or virtualization software.

Enhanced Multitasking Performance

The 30MB L3 cache of the Intel SR1XN Processor plays a crucial role in multitasking scenarios. When running multiple applications simultaneously or handling resource-intensive tasks, the processor needs to quickly switch between different sets of data. The large cache size ensures that frequently accessed data remains readily available, minimizing the need to fetch information from slower memory sources. This results in smoother multitasking performance and improved overall system responsiveness.

Improved Gaming Experience

The 30MB L3 cache significantly benefits gamers by reducing loading times and enhancing in-game performance. Games often require rapid access to various game assets, such as textures, models, and sound files. The large cache size allows for faster retrieval of these assets, minimizing load times and ensuring smooth gameplay. Additionally, the cache helps reduce frame rate drops during intense gaming moments by keeping critical game data readily available.

Efficient Virtual Machine Operations

Virtualization has become increasingly popular for running multiple operating systems or software instances simultaneously. The 30MB L3 cache of the Intel SR1XN Processor facilitates efficient virtual machine operations by storing frequently accessed data from different virtual instances. This eliminates the need to constantly fetch data from slower memory sources, resulting in improved virtualization performance and reduced latency for seamless multitasking within virtual environments.

Boosted Productivity

The large cache size of the Intel SR1XN Processor contributes to enhanced productivity for various tasks. Whether it's video editing, 3D rendering, or data analysis, these resource-intensive applications often require frequent access to large datasets. The ample cache space allows the processor to store a significant portion of the data, reducing the time spent waiting for data transfers and improving overall workflow efficiency.

Efficient Compilation and Code Execution

Developers working with complex software projects often benefit from a large cache size. Compiling code can involve accessing numerous files and dependencies, which can be time-consuming if the data needs to be fetched from slower memory. The 30MB L3 cache accelerates code compilation by keeping frequently accessed files and libraries readily available, reducing the time required for the development process.

Improved AI and Machine Learning Performance

Artificial intelligence (AI) and machine learning (ML) algorithms often operate on large datasets and require repeated access to training data. The generous cache size of the Intel SR1XN Processor aids in accelerating AI and ML workloads by keeping critical data readily available. This reduces memory latency, improves training times, and enables faster inference calculations, ultimately enhancing the overall performance of AI and ML applications.

QPI: 3

Faster Data Transfer

The Intel SR1XN Processor boasts a QPI (QuickPath Interconnect) speed of 3, enabling faster data transfer between processors or other system components. The QPI technology enables high-speed point-to-point connections that help eliminate potential bottlenecks in data communication. With a QPI speed of 3, the processor can efficiently handle large data transfers, ensuring smooth performance and reduced latency.

Enhanced Scalability

QPI plays a crucial role in enabling scalable system designs. The 3 QPI speed of the Intel SR1XN Processor allows for seamless integration of multiple processors, enabling systems to harness the power of parallel processing. This scalability is particularly beneficial for tasks that can be divided into smaller subtasks, such as scientific simulations, financial modeling, or video rendering. With multiple processors interconnected through high-speed QPI links, users can achieve significant performance gains and improved overall system efficiency.

Improved System Responsiveness

The QPI technology in the Intel SR1XN Processor contributes to improved system responsiveness by reducing latency in data transfers. Whether it's accessing files from storage devices, communicating with graphics cards, or transferring data between processors, the high-speed QPI connections ensure minimal delays and faster response times. This results in a more fluid and interactive user experience, particularly when working with demanding applications or multitasking heavily.

Efficient Data Sharing

Collaborative work environments often require efficient data sharing between different system components. The 3 QPI speed of the Intel SR1XN Processor facilitates fast and reliable data transfers, ensuring smooth collaboration and seamless communication between processors, memory modules, and other connected devices. This is especially advantageous for tasks that involve real-time data processing or distributed computing scenarios.

Optimized for Server Applications

Servers typically handle massive workloads and demand efficient data transfer capabilities. The 3 QPI speed of the Intel SR1XN Processor caters to server applications by providing fast interconnectivity between multiple processors and other server components. This enables servers to handle concurrent requests, deliver responsive services, and support high-performance computing tasks efficiently.

Accelerated Data Analysis

Data-intensive applications, such as scientific simulations or big data analytics, rely on fast data transfers for efficient processing. The high-speed QPI connections of the Intel SR1XN Processor accelerate data analysis by enabling seamless communication between processors and memory modules. This reduces the time required for data transfers and allows for faster processing of complex algorithms, enhancing the overall performance of data-centric applications.

Efficient Database Operations

Databases play a crucial role in many applications, handling large volumes of data and responding to queries in real-time. The 3 QPI speed of the Intel SR1XN Processor ensures efficient database operations by facilitating fast communication between processors and storage devices. This enables rapid retrieval and processing of data, resulting in improved database performance and reduced query response times.

High-Performance Computing (HPC)

High-performance computing (HPC) environments often require fast interconnectivity between multiple nodes to handle complex calculations. The 3 QPI speed of the Intel SR1XN Processor enables efficient communication between processors in HPC clusters, allowing for parallel execution of tasks and seamless coordination between nodes. This enhances the performance of scientific simulations, computational fluid dynamics, weather modeling, and other HPC workloads.

Nm Technology: 22NM

Enhanced Power Efficiency

The 22nm (nanometer) technology used in the Intel SR1XN Processor offers enhanced power efficiency compared to older manufacturing processes. The smaller transistor size allows for higher transistor density, reducing power leakage and improving energy efficiency. This results in lower power consumption while maintaining high performance levels, making it an ideal choice for energy-conscious users or systems that prioritize power efficiency.

Increased Performance per Watt

The 22nm technology not only improves power efficiency but also increases performance per watt. By packing more transistors into a smaller area, the Intel SR1XN Processor can deliver higher performance without consuming excessive power. This equates to a higher performance-to-power ratio, ensuring that users can enjoy exceptional computing capabilities without compromising energy efficiency.

Thermal Management

The smaller transistor size in the 22nm technology allows for better thermal management. With reduced power leakage and improved efficiency, the processor generates less heat during operation. This translates into lower operating temperatures and enables more efficient cooling solutions, ensuring that the Intel SR1XN Processor can maintain optimal performance levels without overheating or thermal throttling.

Improved Transistor Performance

The 22nm technology brings advancements in transistor design and performance. The smaller transistor size allows for faster switching speeds and lower resistance, resulting in improved overall transistor performance. This translates into higher clock speeds, reduced power consumption, and enhanced overall system responsiveness. Users can benefit from faster program execution, reduced wait times, and smoother multitasking experiences.

Optimized for Mobile Devices

The power efficiency and improved transistor performance offered by the 22nm technology make it well-suited for mobile devices. Smartphones, tablets, and laptops can benefit from the combination of high performance and low power consumption, resulting in longer battery life and improved mobility. Users can enjoy extended usage time without compromising on performance or experiencing excessive heat generation.

Green Computing

The 22nm technology aligns with the principles of green computing by reducing power consumption and minimizing environmental impact. By using processors built on this advanced manufacturing process, users can contribute to energy conservation efforts and reduce their carbon footprint. The improved power efficiency and performance per watt ratio make the Intel SR1XN Processor an environmentally-friendly choice for eco-conscious individuals and organizations.

Enhanced Reliability

The smaller transistor size in the 22nm technology improves transistor reliability. The reduced power leakage and lower resistance contribute to increased stability and reduced risk of transistor failure. This enhances the overall reliability of the Intel SR1XN Processor, ensuring that users can rely on consistent performance and minimal downtime.

Future-Proofing

Investing in a processor built on advanced manufacturing technology like 22nm ensures future-proofing to a certain extent. As technology continues to evolve, newer software and applications may require higher processing power and improved energy efficiency. The 22nm technology equips the Intel SR1XN Processor with the necessary capabilities to handle future software advancements, allowing users to stay ahead of the curve and avoid premature obsolescence.

Power Consumption: 135W

Energy Efficiency

The Intel SR1XN Processor strikes a balance between high performance and energy efficiency with a power consumption of 135W. The processor efficiently utilizes power resources while delivering exceptional computing capabilities, making it suitable for a wide range of applications. The optimized power consumption ensures that users can have a powerful computing experience without incurring excessive energy costs or compromising environmental sustainability.

Cooling Requirements

The 135W power consumption of the Intel SR1XN Processor influences the cooling requirements for the system. To maintain optimal performance and prevent overheating, it is crucial to employ adequate cooling solutions such as efficient heatsinks, fans, or liquid cooling systems. Proper cooling ensures that the processor operates within its recommended temperature range, maximizing its lifespan and preventing performance degradation due to thermal throttling.

High-Performance Workloads

The 135W power consumption makes the Intel SR1XN Processor suitable for high-performance workloads that demand substantial processing power. Tasks such as video editing, 3D rendering, scientific simulations, or virtualization often require a processor with higher power consumption to handle the computational requirements. The Intel SR1XN Processor's 135W power consumption ensures that users can tackle such resource-intensive tasks efficiently.

Scalable Performance

The 135W power consumption of the Intel SR1XN Processor allows for scalable performance when used in conjunction with multiple processors or specialized hardware configurations. By utilizing efficient power distribution and management techniques, users can build high-performance systems that deliver exceptional computing power while maintaining optimal power consumption levels. This scalability is especially advantageous for server applications or scientific computing clusters.

Optimized Power Profiles

The Intel SR1XN Processor provides optimized power profiles to cater to different usage scenarios. These profiles allow users to adjust the power consumption based on their specific needs, striking a balance between performance and energy efficiency. Whether it's maximizing performance for demanding tasks or conserving energy during idle periods, the processor's power profiles offer flexibility and adaptability to various usage scenarios.

Reduced Energy Costs

The Intel SR1XN Processor's 135W power consumption contributes to reduced energy costs compared to processors with higher power requirements. By efficiently utilizing power resources, users can enjoy powerful computing capabilities without experiencing a significant increase in electricity bills. This makes the processor an economical choice for individuals and organizations that prioritize cost savings and energy efficiency.

Environmental Sustainability

The 135W power consumption aligns with environmental sustainability efforts by minimizing energy waste. By choosing a processor with optimized power consumption, users can contribute to reducing their carbon footprint and conserving natural resources. The Intel SR1XN Processor's efficient power utilization ensures that computing needs are met without compromising environmental sustainability goals.

Long-Term Cost Savings

The Intel SR1XN Processor's efficient power consumption can lead to long-term cost savings. By consuming less power, users can reduce their electricity bills over time, resulting in significant cost savings. Additionally, the processor's energy-efficient design contributes to increased system lifespan, reducing maintenance and replacement costs. The combination of