Intel Xeon Phi 7285

The Intel Xeon Phi 7285 is a 68-core, 272-thread processor built for the Knights Mill architecture, targeting server and workstation workloads. It operates at a base clock of 1300 MHz with a boost clock of 1400 MHz, drawing a 250 W TDP within the Intel Socket 3647 platform. This analysis draws exclusively on the provided specification data to contextualize its performance profile.

Benchmark Performance

The benchmark data for the Intel Xeon Phi 7285 presents a unique case: the average benchmark score is recorded as 0, and the percentile versus all CPUs is 50. This combination indicates that no direct performance scores were captured in the current dataset, placing it at the median percentile by default rather than by measured achievement. The absence of scores means the processor’s raw computational output cannot be quantified against other parts in absolute terms.

The lack of nearest rival data further complicates direct comparison. Without deltaPct values or rival names, the dataset offers no percentage-based performance deltas to report. The 68 cores and 272 threads, however, suggest a massive parallel throughput capability, especially for embarrassingly parallel workloads. The 1300-1400 MHz clock range is modest by modern standards, but the sheer core count compensates in multi-threaded scenarios.

In single-threaded tasks, the low clock speed would likely place the 7285 well below contemporary server chips, but the dataset does not provide such scores. The 50th percentile ranking, absent any measured benchmarks, implies that the processor sits in the middle of the distribution purely as a placeholder, not as a reflection of tested performance. Users should treat this as a data gap rather than a verdict on capability.

The cache hierarchy shows 32 KB L1 and 512 KB L2 per core, which aggregates to substantial on-die storage across 68 cores. This structure favors workloads that fit within local cache per core, reducing memory traffic. Without L3 cache data, the memory subsystem relies heavily on the DDR4 support and ECC capability, which are present but unquantified in bandwidth terms.

Who Should Consider It

Given the core and thread counts, the Intel Xeon Phi 7285 is clearly oriented toward high-throughput computing rather than latency-sensitive tasks. Workloads that scale linearly with core count—such as scientific simulations, finite element analysis, and certain machine learning training loops—would theoretically benefit from the 272 threads. The Knights Mill architecture is specifically designed for deep learning inference and training, so users in that domain are the primary audience.

For gaming, this processor is a poor fit. The 1400 MHz boost clock is far below what gaming workloads require for single-thread performance, and the absence of integrated graphics means a discrete GPU is mandatory. The data does not provide gaming benchmarks, but the clock and core configuration strongly implies that frame-rate-driven applications would underperform relative to higher-clocked mainstream parts.

Content creation workloads that are heavily multi-threaded, such as video rendering or 3D scene compilation, could see strong scaling, but the modest clock speed may bottleneck tasks that rely on per-core efficiency. Office productivity, which typically involves low thread counts and bursty single-thread activity, would not utilize the 7285’s strengths; the 250 W TDP and server socket make it an impractical choice for standard desktop use.

The ECC memory support and DDR4 compatibility point to reliability-focused environments, such as long-running server processes or data center deployments where error correction is critical. The 50th percentile ranking, though not based on scores, places it in a neutral position—neither top-tier nor bottom-tier in the overall CPU hierarchy, which aligns with a specialized niche part rather than a general-purpose champion.

How It Compares

The nearestRivals field in the dataset is empty, meaning there are no direct competitor comparisons available. This absence is notable: the Xeon Phi 7285 has no cited rival scores, no deltaPct values, and no named alternatives in the provided facts. Consequently, any positional analysis against specific parts like AMD EPYC or other Intel Xeon models cannot be made from this data.

In the absence of rival data, the 7285 stands alone in the dataset as a unique entry. Its 68 cores and 272 threads are extreme even among server processors, but without measured scores, its practical standing relative to other high-core-count parts remains undefined. The percentile of 50 is the only positional marker, and it is not derived from performance metrics.

This lack of comparison data means that prospective buyers cannot use this page to benchmark the 7285 against competing silicon. The processor’s architecture, Knights Mill, is distinct from mainstream Xeon designs, and the dataset does not bridge that gap with quantitative rival assessments. As such, the comparison section is necessarily void of specific percentage deltas or named competitors.

For a hardware analyst, this is a significant limitation. The write-up must rely on architectural inference rather than numerical evidence. The 7285’s position in the market, based on the facts provided, is that of an uncompared outlier—its performance claims, if any, are not substantiated by the nearestRivals data.

FAQ

Q: How many cores and threads does the Intel Xeon Phi 7285 have?

A: It has 68 cores and 272 threads, as listed in the specification data.

Q: What is the base and boost clock speed?

A: The base clock is 1300.00 MHz and the boost clock is 1400.00 MHz, per the fact pack.

Q: Does it support ECC memory?

A: Yes, ECC memory support is enabled, and the processor uses DDR4 memory.

Q: What is the thermal design power (TDP)?

A: The TDP is 250 watts, which is a high figure indicating substantial cooling requirements.

Q: What socket does the Xeon Phi 7285 use?

A: It uses Intel Socket 3647, which is typical for server and workstation platforms.

Q: Is there any benchmark score available for this processor?

A: The average benchmark score is 0, and the percentile versus all CPUs is 50, indicating no measured scores exist in the current dataset.

Power and Thermals

The 250 W TDP places the Intel Xeon Phi 7285 in a high-power class, requiring robust thermal solutions. This is not a processor for standard air coolers found in consumer desktops; instead, it demands server-grade cooling, such as high-end heatsinks with active fans or liquid cooling loops designed for dense compute nodes. The Intel Socket 3647 platform typically supports such cooling through its large mounting mechanism and server chassis airflow.

The 14 nm process node and 8,000 million transistors contribute to the power draw, but the architecture’s design for parallel throughput means that the 250 W is spread across 68 cores. Under full load, the thermal output would be significant, and the boost clock of 1400 MHz suggests that all cores can operate near that frequency simultaneously, sustaining high heat generation. The lack of a multiplier unlock means overclocking is not possible, so users cannot trade power for additional performance.

Cooling tier implications are clear: the 7285 requires a cooling solution capable of dissipating 250 W continuously. In a multi-socket server, this necessitates careful chassis design with high-static-pressure fans and ducted airflow. The absence of integrated graphics reduces one heat source, but the CPU alone is a substantial thermal load. The data does not provide specific cooler recommendations, but the TDP class strongly indicates that passive cooling is insufficient, and active server heatsinks are mandatory.

The process node and transistor count suggest that the 7285 was designed to maximize compute density per watt, but the raw 250 W figure still places it above mainstream desktop processors by roughly 2-3 times. Users must factor in power delivery as well—the socket 3647 motherboard must supply adequate VRM cooling to handle sustained current draw. The ECC memory support also implies a server environment where power efficiency is secondary to reliability and throughput.