Intel Core 9 273PQE Beats i9-14900K in Gaming Tests

Intel's newest embedded processor, the Core 9 273PQE based on the Bartlett Lake-S architecture, has delivered a surprising upset in gaming benchmarks — outperforming the company's own flagship Core i9-14900K in multiple tests. The chip, originally designed for mission-critical edge computing and industrial applications, features 12 high-performance P-Cores and no efficiency cores, a configuration that appears to give it a distinct advantage in gaming workloads.

The results have sparked intense discussion among enthusiasts and industry analysts alike, raising questions about whether Intel's hybrid architecture — mixing performance and efficiency cores — may actually hinder gaming performance in certain scenarios.

Key Facts at a Glance

• Architecture: Bartlett Lake-S with 12 Raptor Cove P-Cores, 24 threads, zero E-Cores
• Cache: Up to 36MB L3 cache
• Boost Clock: Up to 5.9GHz
• TDP Options: 125W, 65W, and 45W variants
• Socket: LGA 1700 (compatible with existing 600/700-series motherboards)
• Process Node: Intel 7 manufacturing process
• Target Market: Embedded, edge computing, and industrial deployment

Bartlett Lake-S Emerges From Embedded World 2025

Intel officially unveiled Bartlett Lake-S at the 2025 Embedded World Conference, positioning it as a processor for mission-critical edge computing and industrial deployments. The chip belongs to Intel's Core 200E series processor family, a lineup specifically tailored for embedded applications that demand long lifecycle support and robust reliability.

Unlike Intel's consumer Arrow Lake and older Raptor Lake desktop processors, Bartlett Lake-S takes a radically different approach to core topology. It ditches the hybrid design entirely, opting for a pure performance-core configuration. This means all 12 cores are high-performance Raptor Cove P-Cores, delivering 24 threads without any efficiency cores diluting the silicon.

The decision to use Intel 7 process technology — the same node that powered 12th and 13th Gen desktop chips — rather than the newer Intel 4 or Intel 3 nodes, keeps manufacturing costs lower while leveraging a mature and well-understood fabrication process. For embedded customers, this translates to predictable supply chains and proven reliability.

Gaming Benchmarks Reveal a Performance Surprise

Where things get truly interesting is in the gaming benchmark results that have surfaced from independent testers. The Core 9 273PQE, the top-tier 125W SKU in the Bartlett Lake-S lineup, has been put through a battery of popular gaming titles — and the results are turning heads.

In multiple game tests, the 273PQE matched or outright beat the Core i9-14900K, Intel's former consumer flagship featuring 8 P-Cores and 16 E-Cores (24 cores, 32 threads total). The Bartlett Lake-S chip's advantage appears most pronounced in titles that are sensitive to core quality and cache latency rather than raw thread count.

Several factors likely contribute to this performance edge:

• No E-Core overhead: Without efficiency cores, the Windows thread scheduler doesn't risk assigning critical game threads to slower cores
• Larger per-core cache allocation: 36MB of L3 cache shared among only 12 cores means each core gets more cache bandwidth
• Higher sustained clocks: The 5.9GHz boost clock, combined with a pure P-Core design, allows for consistently high frequencies across all active cores
• Reduced scheduling complexity: Games often struggle with hybrid architectures, and a homogeneous core layout eliminates this problem entirely

These results echo a long-standing debate in the PC gaming community about whether Intel's hybrid approach, first introduced with Alder Lake in 2021, genuinely benefits gaming workloads or merely inflates multi-threaded benchmark scores.

Why a Pure P-Core Design Matters for Gaming

Modern PC games typically utilize between 4 and 8 threads heavily, with some newer titles scaling to 12 or more. However, these threads are not created equal — primary game threads handling rendering, physics, and AI logic demand the fastest possible execution, while background threads can tolerate lower performance.

Intel's hybrid architecture was designed to handle this asymmetry intelligently, with the Thread Director technology guiding the operating system to place demanding threads on P-Cores and lighter tasks on E-Cores. In practice, however, this system doesn't always work perfectly. Games with unusual threading models or older titles that predate hybrid-aware scheduling can suffer from occasional thread misplacement.

Bartlett Lake-S sidesteps this problem entirely. Every thread, regardless of priority, lands on a high-performance Raptor Cove core running at up to 5.9GHz. The result is more predictable frame times, fewer micro-stutters, and consistently high minimum FPS — metrics that matter enormously to competitive and enthusiast gamers.

This mirrors a philosophy that AMD has long championed with its Ryzen lineup, which has historically used homogeneous core designs. AMD only recently began experimenting with hybrid configurations in its mobile chips, while keeping its desktop Ryzen 9000 series entirely uniform.

Industry Implications: Could Intel Rethink Its Desktop Strategy?

The Bartlett Lake-S gaming results raise a provocative question: should Intel offer a pure P-Core desktop processor for gamers? The company's current consumer roadmap — Arrow Lake and the upcoming Panther Lake — continues to rely on hybrid designs with a mix of performance and efficiency cores.

There are compelling arguments on both sides:

Arguments for a pure P-Core gaming chip:
- Eliminates thread scheduling issues that plague hybrid designs
- Simplifies driver and OS optimization
- Delivers more predictable gaming performance
- Appeals to the enthusiast market willing to pay a premium

Arguments against:
- Higher power consumption per core compared to E-Core offloading
- Worse multi-threaded productivity performance per watt
- Larger die size increases manufacturing costs
- Conflicts with Intel's broader efficiency messaging

Intel has not publicly commented on whether Bartlett Lake-S's gaming success might influence its consumer desktop strategy. However, the company has a history of cross-pollinating technologies between its embedded and consumer divisions. The Xeon workstation line, for example, has occasionally spawned consumer-oriented variants when market demand justified it.

LGA 1700 Compatibility Opens Doors for Enthusiasts

One detail that has particularly excited the enthusiast community is Bartlett Lake-S's use of the LGA 1700 socket. This means the processor is physically compatible with existing Intel 600-series and 700-series motherboards — the same platforms used by 12th, 13th, and 14th Gen desktop processors.

While Intel has designed Bartlett Lake-S for embedded motherboards with specific firmware, enterprising enthusiasts and modders are already speculating about whether BIOS modifications could enable these chips to run on consumer Z690, Z790, or B760 boards. If successful, this could create a niche but passionate market for what amounts to a '12-core, all-P-Core gaming processor' on affordable, widely available motherboards.

The 125W TDP of the top-tier 273PQE also sits comfortably within the thermal envelope of most high-end consumer CPU coolers, making a hypothetical enthusiast build entirely practical from a cooling standpoint.

What This Means for PC Builders and Gamers

For the average PC gamer or system builder, Bartlett Lake-S is unlikely to become a mainstream option — it's an embedded product with limited retail availability and potentially higher per-unit costs. However, its benchmark results carry significant implications for the broader processor market.

First, they validate the argument that core quality matters more than core quantity for gaming. A 12-core processor beating a 24-core chip in games underscores that raw thread counts are a misleading metric for gaming performance.

Second, they put pressure on Intel to address the thread scheduling challenges in its hybrid consumer processors. Windows 11's Thread Director support has improved since Alder Lake's launch, but Bartlett Lake-S proves there's still a measurable gap between hybrid and homogeneous designs in latency-sensitive workloads.

Third, these results give AMD additional ammunition in its marketing of homogeneous Ryzen desktop processors. AMD's Ryzen 9 9950X, with its 16 uniform Zen 5 cores, already positions itself as the 'no compromise' gaming and productivity chip — and Bartlett Lake-S's success reinforces that narrative.

Looking Ahead: The Future of Intel's Core Architecture

Intel's processor roadmap through 2026 and beyond continues to emphasize hybrid designs for consumer products. Panther Lake, expected later in 2025, will combine next-generation P-Cores and E-Cores on the Intel 18A process node. Nova Lake, slated for 2026, will push this further with even more heterogeneous compute elements.

However, Bartlett Lake-S demonstrates that there remains a viable market — and a clear performance case — for processors built around a single, high-performance core type. Whether Intel chooses to address this with a dedicated consumer product or leaves it as an embedded curiosity will depend on market demand and competitive pressure from AMD.

For now, the Core 9 273PQE stands as a fascinating anomaly: an industrial processor that moonlights as one of the best gaming chips Intel has ever produced. It's a reminder that in the world of PC hardware, the most interesting innovations don't always come from the products designed to grab headlines — sometimes they emerge from the workhorses built for factory floors and edge servers.