TYAN, an industry-leading server platform design manufacturer and a MiTAC Computing Technology Corporation subsidiary, today introduced 4th Gen Intel Xeon Scalable processor-based server platforms highlighting built-in accelerators to improve performance across the fastest-growing workloads in AI, analytics, cloud, storage, and HPC.

"Greater availability of new technology like 4th Gen Intel Xeon Scalable processors continue to drive the changes in the business landscape", said Danny Hsu, Vice President of MiTAC Computing Technology Corporation's Server Infrastructure Business Unit. "The advances in TYAN's new portfolio of server platforms with features such as DDR5, PCIe 5.0 and Compute Express Link 1.1 are bringing high levels of compute power within reach from smaller organizations to data centers."

Inspur Information, a leading IT infrastructure solutions provider, announced that its G7 server platform fully supports 4th Gen Intel Xeon Scalable Processors. The 16 servers making up the brand-new lineup are industry-leading in terms of performance, openness, intelligent operation & maintenance, and sustainability. Compared with the previous generation of Intel-based products, these servers have 61% higher performance and up to 30% higher computing performance per unit of power consumption. The server platform is designed to be deployed in general-purpose computing, critical computing, AI, and other application scenarios.

Inspur Information's brand-new G7 platform was designed with green technology, open-source solutions, security, and intelligence as priorities. It is an industry-leading example of system design, energy efficiency, and operation & maintenance management. G7 servers support diversified computing, with the most comprehensive product lineup in the industry. With a focus on green energy, this product line supports cold plate and immersion cooling schemes, and has unique cooling designs such as T-shaped radiator and advance heat detection with intelligent regulation, which all work together to reduce energy consumption by up to 30%. The new series also supports cloud operation and maintenance for intelligent fault diagnosis with an accuracy rate up to 95%.

Today, Lenovo unveiled 25 new ThinkSystem and ThinkAgile server and hyperconverged solutions powered by Intel's 4th Generation Xeon Scalable Processors as part of its recently announced Infrastructure Solutions V3 portfolio. Designed to help accelerate global IT modernization for organizations of all sizes, the integrated solutions deliver advanced performance, efficiency and management capabilities specifically optimized for complex workloads, including mission-critical, AI, HPC and containerized applications.

"In today's competitive business climate, modern infrastructure solutions that generate faster insights and more efficiently enable complex workloads from the edge to the cloud are critical across every major industry," said Kamran Amini, Vice President and General Manager of Server & Storage, Lenovo Infrastructure Solutions Group. "With the performance and management improvements of the Intel-based ThinkSystem V3 portfolio, customers can reduce their IT footprint by up to three times to achieve greater ROI and more easily transform their infrastructure with one seamless platform designed for today's AI, virtualization, multi-cloud and sustainable computing demands."

Intel today marked one of the most important product launches in company history with the unveiling of 4th Gen Intel Xeon Scalable processors (code-named Sapphire Rapids), the Intel Xeon CPU Max Series (code-named Sapphire Rapids HBM) and the Intel Data Center GPU Max Series (code-named Ponte Vecchio), delivering for its customers a leap in data center performance, efficiency, security and new capabilities for AI, the cloud, the network and edge, and the world's most powerful supercomputers.

Working alongside its customers and partners with 4th Gen Xeon, Intel is delivering differentiated solutions and systems at scale to tackle their biggest computing challenges. Intel's unique approach to providing purpose-built, workload-first acceleration and highly optimized software tuned for specific workloads enables the company to deliver the right performance at the right power for optimal overall total cost of ownership. Additionally, as Intel's most sustainable data center processors, 4th Gen Xeon processors deliver customers a range of features for managing power and performance, making the optimal use of CPU resources to help achieve their sustainability goals.

Supermicro, a Total IT Solution Provider for Cloud, AI/ML, Storage, and 5G/Edge, is announcing an expanded product line with exciting new ARM-based series of servers as part of the MegaDC family. Using Ampere Altra and Ampere Altra Max processors, the Mt. Hamilton platform leverages a single unified motherboard design, targeting cloud-native applications, such as Cloud Gaming, Video-on-Demand, CDN, IaaS, Database, Object-Storage, dense VDI, and Telco Edge (Distributed Unit and Centralized Unit) solutions. In addition, the new servers address several objectives for cloud-native workloads, specifically delivering high performance per watt while executing scalable workloads and those that require very low latency responses.

"Supermicro continues to bolster our product line by introducing ARM-based servers, using the Ampere Altra and Altra Max CPUs," said Ivan Tay, SVP of Product Management, Supermicro. "Expanding our already broad server product line gives customers even more choices for their specific workloads. We can quickly offer optimized application servers for customers worldwide using our Building Block Solutions approach."

The United States has recently imposed several sanctions on technology exports to China. These sanctions are designed to restrict the transfer of specific technologies and sensitive information to Chinese entities, particularly those with ties to the Chinese military or government. The primary motivation behind these sanctions is to protect American national security interests, as well as to protect American companies from unfair competition. According to Financial Times, we have information that Chinese tech Giant, Alibaba, can not access Arm licenses for Neoverse V1 technology. Generally, the technology group where Neoverse V-series falls in is called Wassenaar -- multilateral export control regime (MECR) with 42 participating states. This agreement prohibits the sale of technology that could be used for military purposes.

The US argues that Arm's Neoverse V1 IP is not only a product from UK's Arm but a design made in the US as well, meaning that it is a US technology. Since Alibaba's T-Head group responsible for designing processors that go into Alibaba's cloud services can not use Neoverse V1, it has to look for alternative solutions. The Neoverse V1 and V2 can not be sold in China, while Neoverse N1 and N2 can. Alibaba's T-Head engineer argued, "We feel that the western world sees us as second-class people. They won't sell good products to us even if we have money."

Intel is planning a January 2023 market debut of its 4th Gen Xeon Scalable "Sapphire Rapids" server processors, which will be followed rather quickly by the launch of Xeon W-3400 and W-2400 processors targeting a segment of the market that spans HEDTs and workstations. According to information scored by leaf_hobby, a reliable source with Intel roadmap leaks; the company is planning a February 2023 announcement of these processors, followed by availability of the W-2400 in March, and W-3400 in April.

Intel could extensively market the various hardware-accelerators on the "Sapphire Rapids" MCM to the workstation crowd, where they might help users overcome the rather low CPU core-count of these processors compared their upcoming AMD Threadripper 7000 series counterparts. "Sapphire Rapids" tops out at 60-core/120-thread per socket, whereas the SP5-based Threadripper 7000 is expected to offer 96-core/192-thread. Both platforms offer the latest I/O, including PCIe Gen 5, CXL, and ECC DDR5 memory.

AIC Inc., (from now on referred to as "AIC"), a leading provider in enterprise storage and server solutions, today revealed its new edge server appliance powered by 4th Gen AMD EPYC processors (codename Genoa). The new server, EB202-CP, is designed to deliver superior performance in a compact size while offering excellent cost efficiency. Combined with the 4th Gen AMD EPYC processors, EB202-CP is expected to drive the innovations in AI, training simulation, autonomous vehicles and edge applications. AIC will showcase EB202-CP at SC22 expo from November 14th to 17th, 2022.

AIC EB202-CP is a 2U rackmount server with 22 inches in depth. It supports eight E1.S/ E3.S or U.2 SSDs which are front-serviceable and hot-swappable. The E1.S/ E3.S drives are Enterprise and Datacenter SSD Form Factor (EDSFF) that enables EB202-CP to provide high-density all-flash NVMe for half petabyte storage capabilities and enhance IOPS and space utilization. EB202-CP has great expansion functionality and supports up to two double-stack GPU or accelerator cards, two FHHL/HHHL PCIe 5.0 cards and an OCP 3.0 card. Based on AIC server board Capella, EB202-CP supports single 4th Gen AMD EPYC processor and eight DDR5 DIMMs. The 4th Gen AMD EPYC processors, built on "Zen 4" architecture, are optimized for general-purpose workloads across enterprise, cloud and edge. This new generation of AMD EPYC features the world's highest-performing x86 processor, PCIe 5.0 ready, and enables low TCO. It also delivers leadership energy efficiency as well as state-of-the-art security features.

Intel's upcoming Sapphire Rapids processors have faced multiple delays over the past few years. Built on Intel 7 manufacturing process, the CPU is supposed to bring new advances for Intel's clients and significant performance uplifts. However, TrendForce reports that the mass production of Sapphire Rapids processors will be delayed from Q4 of 2022 to the first half of 2023. The reason for this (yet another) delay is that the Sapphire Rapids MCC die is facing a meager yield on Intel 7 manufacturing technology, estimated to be at only 50-60% at the time of writing. Economically, this die-yielding percentage is not profitable for Intel since many dies are turning out to be defective.

This move will stop many OEMs and cloud service providers (CSPs) from rolling out products based on the Sapphire Rapids design and will have to delay it until next year's mass production. On the contrary, AMD is likely to reap the benefits of Intel's delay, and AMD's x86 server market share will jump from 15% in 2022 to 23% in 2023. Given that AMD ships processors with the highest core counts, many companies will opt for AMD's solutions in their data centers. With more companies being concerned by their TCO measures with rising energy costs, favors fall in the hand of single-socket servers.

Starting next year, AMD will move to a new model number scheme for its mobile processors and it appears that the company has decided to use the first digit to represent the model year, which should alleviate some past confusion. The second digit in the model name will represent where in the product stack the specific chip will sit and here we're potentially getting some new 6 and 8 models, although nothing guarantees that AMD will actually implement these segments into real products. The third digit represents the architecture, so a four equals Zen 4 for example.

The last digit in the model names is a new addition where AMD has sub SKUs that offer some performance advantage of the base SKU of a specific model and this digit will apparently only be represented by a 0 or a 5. Finally AMD has added a new suffix too, where C stands for Chromebook. This translates to 15-28 Watt chips that have been designed specifically for Chromebook usage. The current HX, HS and U suffix lettering will carry over, alongside the lower-case e for 9 W versions the U SKUs. AMD has also segmented it's mobile CPUs according to the chart below, to try and deliver a clearer use case for its various CPU models. The chart is pretty self explanatory, although some of the segmentation will apply to updated models of current designs, whereas others will only apply to new laptop designs. The new model numbering scheme will apply to at least 2025.

Qualcomm is a company well known for designing processors going inside a vast majority of smartphones. However, the San Diego company has been making attempts to break out of its vision to focus on smartphones and establish new markets where it could show its potential for efficient processor design. According to Bloomberg's insights, Qualcomm is planning to re-enter the server market and try again to compete in the now very diverse space. In 2014, Qualcomm announced that the company is developing an Arm ISA-based CPU that will target servers and be an excellent alternative for cloud service providers looking at efficient designs called Centriq. Later on, in November of 2017, the company announced the first CPU Centriq 2400, which had 48 custom Falkor cores, six-channel DDR4 memory, and 60 MB of L3 cache.

What happened later is that the changing management of the company slowly abandoned the project, and the Arm CPU market was a bit of a dead-end for many projects. However, in recent years, many companies began designing Arm processors, and now the market is ready for a player like Qualcomm to re-enter this space. With the acquisition of Nuvia Inc., which developed crazy fast CPU IPs under the leadership of industry veterans, these designs could soon see the light of the day. It is reported that Qualcomm is in talks with Amazon's AWS cloud division, which has agreed to take a look at Qualcomm's offerings.

The x86 CPU family has been vulnerable to many attacks in recent years. With the arrival of Spectre and Meltdown, we have seen side-channel attacks overtake both AMD and Intel designs. However, today we find out that researchers are capable of exploiting Intel's latest 10th, 11th, and 12th generation Core processors with a new CPU bug called ÆPIC Leak. Named after Advanced Programmable Interrupt Controller (APIC) that handles interrupt requests to regulate multiprocessing, the leak is claimeing to be the first "CPU bug able to architecturally disclose sensitive data." Researchers Pietro Borrello (Sapienza University of Rome), Andreas Kogler (Graz Institute of Technology), Martin Schwarzl (Graz), Moritz Lipp (Amazon Web Services), Daniel Gruss (Graz University of Technology), and Michael Schwarz (CISPA Helmholtz Center for Information Security) discovered this flaw in Intel processors.

ÆPIC Leak is the first CPU bug able to architecturally disclose sensitive data. It leverages a vulnerability in recent Intel CPUs to leak secrets from the processor itself: on most 10th, 11th and 12th generation Intel CPUs the APIC MMIO undefined range incorrectly returns stale data from the cache hierarchy. In contrast to transient execution attacks like Meltdown and Spectre, ÆPIC Leak is an architectural bug: the sensitive data gets directly disclosed without relying on any (noisy) side channel. ÆPIC Leak is like an uninitialized memory read in the CPU itself.

A privileged attacker (Administrator or root) is required to access APIC MMIO. Thus, most systems are safe from ÆPIC Leak. However, systems relying on SGX to protect data from privileged attackers would be at risk, thus, have to be patched.

Many companies, including Intel and AMD, have stopped product shipments to Russia amidst the war in Ukraine in the past few months. This has left the Russian state without any new processors from the two prominent x86 designers, thus slowing down the country's technological progress. To overcome this issue, it seems like the solution is embedded in the Chinese Zhaoxin x86 CPUs. According to the latest report from Habr, a motherboard designer called Dannie is embedding Chinese Zhaoxin x86 CPUs into motherboards to provide the motherland with an x86-capable processor. More precisely, the company had designed a BX-Z60A micro-ATX motherboard that embeds Zhaoxin's KaiXian KX-6640MA SoC with eight cores based on LuJiaZui microarchitecture. The SoC is clocked at a frequency range of 2.1-2.7 GHz, carries 4 MB of L2 cache, 16 lanes of PCIe 3.0, and has integrated graphics, all in a 25 Watt TDP.

As far as the motherboard is concerned, it supports two DDR4 memory slots, two PCIe x16 connectors, M.2-2280 and M.2-2230 slots, and three SATA III connectors for storage. For I/O you have USB ports, DisplayPort, HDMI, VGA/D-Sub, GbE, 3.5-mm audio, and additional PS/2 ports. This is a pretty decent selection; however, we don't know the pricing structure. A motherboard with KaiXian KX-6640MA SoC like this is certainly not cheap, so we are left to wonder if this will help Russian users deal with the newly imposed restriction on importing US tech.

AMD and the Mercedes-AMG Petronas Formula One (F1) Team today showcased how AMD EPYC processors improved aerodynamics testing capacity, contributing to the Mercedes-AMG Petronas team winning its eighth Constructors' Championship in the 2021 racing season. By using AMD EPYC processors, the team was able to achieve a 20 percent performance improvement for computational fluid dynamics (CFD) workloads that were used to model and test aerodynamic flow of their F1 car.

"We are proud to partner with the reigning Constructors' Champions, the Mercedes-AMG Petronas Formula One Team, operating at the cutting edge of racing and technology," said, Dan McNamara, senior vice president and general manager, Server Business Unit, AMD. "For F1 teams, having the most effective computational analysis of aerodynamics can mean the difference between winning and losing a race. With AMD EPYC processors, the Mercedes-AMG F1 team can iterate on vehicle design faster and more efficiently than their previous system."

AMD is slowly preparing to transition its consumer base into a new platform and processor architecture with the launch of Ryzen 7000 series processors codenamed Raphael. Based on the new AM5 LGA socket, these processors will come with up to 16 cores and 32 threads at the top-end configurations. Thanks to the latest round of rumors, we managed to find out just what TDP rating two SKUs will carry. According to a well-known leaker @graymon55, AMD is rating the 12-core SKU with a TDP of 105 Watts. On the other hand, the top-end 16-core 7000 series SKU replacing the current Ryzen 9 5950X will carry a large TDP of 170 Watts.

The 170 Watt TDP configuration will likely require better cooling efforts. AMD will probably advise users to invest in better cooling solutions, such as AIO liquid coolers or giant air coolers.

Designing Artificial Intelligence / Machine Learning hardware accelerators takes effort from hardware engineers in conjunction with scientists working in the AI/ML area itself. A few years ago, we started seeing AI incorporated into parts of electronic design automation (EDA) software tools, helping chip designers speed up the process of creating hardware. What we were "used to" seeing AI do are just a couple of things like placement and routing. And having that automated is a huge deal. However, it looks like the power of AI for chip design is not going to stop there. Researchers at Google and UC Berkeley have made a research project that helps AI design and develop AI-tailored accelerators smaller and faster than anything humans made.

In the published paper, researchers present PRIME - a framework that created AI processors based on a database of blueprints. The PRIME framework feeds off an offline database containing accelerator designs and their corresponding performance metrics (e.g., latency, power, etc.) to design next-generation hardware accelerators. According to Google, PRIME can do so without further hardware simulation and has processors ready for use. As per the paper, PRIME improves performance upon state-of-the-art simulation-driven methods by as much as 1.2x-1.5x. It also reduces the required total simulation time by 93% and 99%, respectively. The framework is also capable of architecting accelerators for unseen applications.

ASRock Industrial launches a new range of industrial motherboards powered by 12th Gen Intel Core Processors (Alder Lake-S) with up to 16 cores and 24 threads, supporting the new Intel 600 Series W680, Q670, and H610 chipsets. Featuring high computing power with performance hybrid architecture and enhanced AI capabilities, rich IOs and expansions for up to quad displays 4K@60 Hz, USB 3.2 Gen2x2 (20 Gbit/s), triple Intel 2.5 GbE LANs with real-time TSN, multi M.2 Key M, ECC memory, plus TPM 2.0, and wide voltage support. The new series covers comprehensive form factors, including industrial Mini-ITX, Micro-ATX, and ATX motherboards for diverse applications, such as factory automation, kiosks, digital signage, smart cities, medical, and Edge AIoT applications.

Intel's Alder Lake processors have two types of cores present, with two distinct sets of features and capabilities enabled. For example, smaller E-cores don't support the execution of AVX-512 instructions, while the bigger P-cores have support for AVX-512 instructions. So Intel has decided to remove support for it altogether not to create software errors and run into issues with executing AVX-512 code on Alder Lake processors. This happened just months before the launch of Alder Lake, making us see some initial motherboard BIOSes come with AVX-512 enabled from the box. Later on, all motherboard makers pulled the plug on it, and it is a rare sight to see support for it.

However, it seems like MSI is unhappy with the lack of AVX-512, and the company is reenabling partial support for it. According to Xaver Amberger, editor at Igor's Lab, MSI reintroduces selecting microcode version with its MEG Z690 Unify-X motherboard. There is an option for AVX-512 enablement in the menu, and it is indeed a functional one. With BIOS A22, MSI enabled AVX-512 instruction execution, and there are benchmarks to prove it works. This shows an advantage of 512-bit wide execution units of AVX-512 over something like AVX2, which offers only 256-bit wide execution units. In applications such as Y-Cruncher, AVX-512 enabled the CPU to reach higher performance targets while consuming less power.

Tachyum today announced that it was selected by the Slovak Republic to participate in the latest submission for the Important Projects of Common European Interest (IPCEI), to develop Prodigy 2 for HPC/AI. Prodigy 2 for HPC/AI will enable 1 AI Zettaflop and more than 10 DP Exaflops computers to support superhuman brain-scale computing by 2024 for under €1B. As part of this selection, Tachyum could receive a 49 million Euro grant to accelerate a second-generation of its Tachyum Prodigy processor for HPC/AI in a 3-nanometer process.

The IPCEI program can make a very important contribution to sustainable economic growth, jobs, competitiveness and resilience for industry and the economy in the European Union. IPCEI will strengthen the EU's open strategic autonomy by enabling breakthrough innovation and infrastructure projects through cross-border cooperation and with positive spill-over effects on the internal market and society as a whole.

AMD's Ryzen 7000 series of desktop processors based on the novel Zen 4 core architecture are scheduled to arrive in the second half of 2022. While we are not sure just how big the architectural differences will be going from Zen 3 (with or without 3D V-cache) to the new Zen 4 core, we have some leaked information that confirms the existence of two SKUs that reveal additional details about the processor configuration. In the MilkyWay@Home project, aiming to create a model of the Milky Way galaxy by utilizing countless PCs across the globe, we found two next-generation Ryzen 7000 SKUs. The MilkyWay@Home project isn't a benchmark. However, it is a valuable reference where the next generation processors appeared.

First in line is the 100-000000666-21_N CPU, a codename for an eight-core, sixteen-threaded design. This model should correspond to the AMD Ryzen 7 7800X CPU, a successor to the Ryzen 7 5800X model. Next in line is the 100-000000665-21_N CPU with 16 cores and 32 threads, a successor to the Ryzen 9 5950X named Ryzen 9 7950X. One important thing to note is that these new CPUs feature different level two (L2) cache configurations. With the previous generation 5000 series "Vermeer" processors, the L2 cache was locked at 512 KB per core. However, according to today's leak, the upgraded Zen 4 IP will bring 1024 KB of L2 cache per core, doubling the cache size at one of the fastest levels.

Today at CES 2022, Intel announced the world's fastest mobile processor, bringing its performance hybrid architecture to mobile platforms for the first time with new 12th Gen Intel Core mobile processors that are up to 40 percent faster than the previous generation mobile processor. Intel introduced 28 new 12th Gen Intel Core mobile processors that deliver a feature-rich suite of capabilities to create laptops for people to compute whenever and wherever they need - without compromise.

With the introduction of the full 12th Gen Intel Core desktop processor lineup, the 12th Gen Intel Core processor family also represents the company's most scalable lineup to date, powering designs across consumer, enterprise, the Internet of Things (IoT) and other applications. "Intel's new performance hybrid architecture is helping to accelerate the pace of innovation and the future of compute," said Gregory Bryant, executive vice president and general manager of Intel's Client Computing Group. "And, with the introduction of 12th Gen Intel Core mobile processors, we are unlocking new experiences and setting the standard of performance with the fastest processor for a laptop—ever."

Razer, the leading global lifestyle brand for gamers (Hong Kong Stock Code: 1337), is kicking off 2022 with new Razer Blade gaming laptop models including the Razer Blade 14, Razer Blade 15, and Razer Blade 17. The world's fastest laptops for gamers and creators are equipped with the recently announced NVIDIA GeForce RTX 30 Series Laptop GPUs, up to an RTX 3080 Ti, making the new Blades better than ever, now shipping with Windows 11. All new Razer Blade gaming laptops now also include groundbreaking DDR5 memory, providing blistering clock speeds up to 4800 MHz, an increase in frequency by up to 50% compared to the previous generation.

"The Razer Blade series continues to be the best gaming laptop by providing desktop-class performance on-the-go," says Travis Furst, Senior Director of Razer's Systems business unit. "Additionally, we've enabled creators to work anywhere with gorgeous displays, available NVIDIA Studio drivers, and up to 14-Core CPUs. Users will have the ability to choose any model or configuration that best fits their gaming or creating needs, while getting the latest and greatest in graphics, memory and processing technology."

All six Intel 12th Gen Core "Alder Lake" processor models launched to date are unlocked (K or KF) SKUs, which lack a boxed cooling solution. This is expected to change early next year when Intel fleshes out the lineup with at least 10 new SKUs for the retail segment; and with "Alder Lake" marking the first major change to the mainstream desktop processor cooling mount in over a decade; Intel has the opportunity to radically change its cooling design. We got our first hint at what these could look like back in September, and we now have a clear picture of one of them.

There are three stock coolers Intel is preparing. The RH1 (high) will likely go with the top Core i9-12900 and i9-12900F parts. The RM1 (mid) could be bundled with various Core i7 and Core i5 SKUs; while the RS1 (small) could go with entry-level Core i3 SKUs. Here we have the RM1. Back in the September article, we were staring at low-resolution pictures and trying to guess what the heatsink design could look like. At the time we thought that the pointy structures into which the fan is nestled, are metallic extensions of the heatsink's fins, designed to make use of lateral bleed airflow from the fan. The new picture puts this theory to rest. Turns out, those are little more than an aesthetic touch.

Just yesterday, thanks to the Linux driver update, we found information stating that AMD's upcoming EPYC Genoa processor generation based on Zen 4 core IP will have a 12-channel memory controller. However, we didn't know how AMD engineered the memory controller of this processor generation and some of its maximum capabilities. However, there is an exciting discovery. According to the report from ComputerBase, with information exclusive to them, AMD will enable up to 12 TB of DDR5 memory spread across 12 memory channels. The processor supports DDR5-5200 memory, but when all 24 memory slots (two per channel) are populated, the DDR5 maximum speed drops to 4000 MT/s.

It is unclear why this is the case, and if any difficulties were designing the controller, so the maximum speed drops when every slot is used. One reassuring thing is that the bandwidth created by 12 memory channels should be sufficient to make up for the lost speed of DDR5 memory reduction.

According to some testing performed by the team behind RPCS3, a free and open-source emulation software for Sony's PlayStation 3, Intel's Alder Lake processors are enjoying a hefty performance boost when E-Cores is disabled. First of all, the Alder Lake processors feature a hybrid configuration with high-performance P-cores and low-power E-cores. The P-cores are based on Golden Cove architecture and can execute AVX-512 instructions with ease. However, the AVX-512 boost is only applicable when E-cores are disabled as software looks at the whole package. Officially, Alder Lake processors don't support AVX-512, as the processor's little E-cores cannot execute AVX-512 instruction.

Thanks to the team behind the RPCS3 emulator, we have some information and tests that suggest that turning E-cores off gives a performance boost to the emulation speed and game FPS. With E-Cores disabled, and only P-cores left, the processor can execute AVX-512 and gets a higher ring ratio. This means that latency in the ring bus is presumably lower. The team benchmarked Intel Core i9-12900K, and Core i9-11900K processors clocked at 5.2 GHz for tests. The Alder Lake chip had disabled E-cores. In God of War: Ascension, the Rocket Lake processor produced 68 FPS, while Alder Lake produced 78 FPS, representing around 15% improvement.