With the launch of Apple Silicon for Mac computers, Apple has established itself as a great user of the Arm instruction set. Starting with M1, the company released an entirely new family of products running Apple Silicon. Today, thanks to the research of Strategy Analytics company, we have information that Apple is capturing as much as 90% of the revenue share present in the Arm PC market. The Arm PC market is a tiny subset of the entire PC market, mainly equipped with one-off Windows-on-Arm devices, Chromebook PCs, and Apple Macs. With the naturally low prices of the remaining Arm PCs, Apple Arm PCs offer a relatively high price point and a much more incredible selection of products.

On the global scale, Arm PCs now account for 9% of the total PC market share, where x86 vendors are dominating the field. "Apple's M-series family of processors set the benchmark and gave Apple a 2-3-year lead over the rest of the Arm-based PC processor vendors. Qualcomm captured just 3% revenue share in the Arm-based notebook PC processor market in 2021 and lags Apple in CPU performance," said Sravan Kundojjala, Director of Handset Component Technologies service at Strategy Analytics. This points to a particular case of Apple's better product and feeding the demand with higher-performing processors. Qualcomm's acquisition of Nuvia should yield different results in the coming years, as the new IP is yet to appear in Qualcomm SoCs.

It turns out that Russia was a major supplier of, among many other things, industrial-grade noble gases, which are vital for semiconductor production. Earlier this month, the Russian government announced that it is cutting supply of noble gases to "unfriendly countries" (countries in the US sphere of influence), unless they pay for the merchandise in Russian Rubles, by creating remittance accounts in Russian banks (similar to how it wants these countries to pay for crude oil and natural gas).

Russia and Ukraine were leading global suppliers of industrial noble gases, together making up a third of the noble gas consumed by the semiconductor industry. Much of the heavy industry in Ukraine is either out of service, or committed to the war effort, which lets Russia dictate terms for its supply. Argon, xenon, helium, and neon are the most sought after noble gases in the semiconductor industry. In addition to the inert environment, mixtures of these gases are required by the lasers that perform lithography (etching microscopic circuits on silicon wafer).

Apple M1 chips are a part of the Apple Silicon family that represents a new transition to Arm-based cores with new power and performance targets for Apple devices. A portion of building a processor is designing its security enclave, and today we have evidence that M1 processors got a new vulnerability. The PACMAN is a hardware attack that can bypass Pointer Authentication (PAC) on M1 processors. Security researchers took an existing concept of Spectre and its application in the x86 realm and now applied it to the Arm-based Apple silicon. PACMAN exploits a current software bug to perform pointer authentication bypass, which may lead to arbitrary code execution.

The vulnerability is a hardware/software co-design that exploits microarchitectural construction to execute arbitrary codes. PACMAN creates a PAC Oracle to check if a specific pointer matches its authentication. It must never crash if an incorrect guess is supplied and the attack brute-forces all the possible PAC values using the PAC Oracle. To suppress crashes, PAC Oracles are delivered speculatively. And to learn if the PAC value was correct, researchers used uArch side channeling. In the CPU resides translation lookaside buffers (TLBs), where PACMAN tries to load the pointer speculatively and verify success using the prime+probe technique. TLBs are filled with minimal addresses required to supply a particular TLB section. If any address is evicted from the TLB, it is likely a load success, and the bug can take over with a falsely authenticated memory address.

Google Cloud and AMD today announced a technology partnership in which AMD will run electronic design automation (EDA) for its chip-design workloads on Google Cloud, further extending the on-premises capabilities of AMD data centers. AMD will also leverage Google Cloud's global networking, storage, artificial intelligence, and machine learning capabilities to further improve upon its hybrid and multicloud strategy for these EDA workloads.

Scale, elasticity, and efficient utilization of resources play critical roles in chip design, particularly given that the demand for compute processing grows with each node advancement. To remain flexible and scale easily, AMD will add Google Cloud's newest compute-optimized C2D VM instance, powered by 3rd Gen AMD EPYC processors, to its suite of resources focused on EDA workloads. By leveraging Google Cloud, AMD anticipates being able to run more designs in parallel, giving the team more flexibility to manage short-term compute demands, without reducing allocation on long-term projects.

Apple today announced M1 Ultra, the next giant leap for Apple silicon and the Mac. Featuring UltraFusion — Apple's innovative packaging architecture that interconnects the die of two M1 Max chips to create a system on a chip (SoC) with unprecedented levels of performance and capabilities — M1 Ultra delivers breathtaking computing power to the new Mac Studio while maintaining industry-leading performance per watt.

The new SoC consists of 114 billion transistors, the most ever in a personal computer chip. M1 Ultra can be configured with up to 128 GB of high-bandwidth, low-latency unified memory that can be accessed by the 20-core CPU, 64-core GPU and 32-core Neural Engine, providing astonishing performance for developers compiling code, artists working in huge 3D environments that were previously impossible to render, and video professionals who can transcode video to ProRes up to 5.6x faster than with a 28-core Mac Pro with Afterburner.

Worldwide semiconductor revenue increased 25.1% in 2021 to total $583.5 billion, crossing the $500 billion threshold for the first time, according to preliminary results by Gartner, Inc.

"As the global economy bounced back in 2021, shortages appeared throughout the semiconductor supply chain, particularly in the automotive industry," said Andrew Norwood, research vice president at Gartner. "The resulting combination of strong demand as well as logistics and raw material price increases drove semiconductors' average selling price higher (ASP), contributing to overall revenue growth in 2021.

Today, IBM and Samsung Electronics jointly announced a breakthrough in semiconductor design utilizing a new vertical transistor architecture that demonstrates a path to scaling beyond nanosheet, and has the potential to reduce energy usage by 85 percent compared to a scaled fin field-effect transistor (finFET)1. The global semiconductor shortage has highlighted the critical role of investment in chip research and development and the importance of chips in everything from computing, to appliances, to communication devices, transportation systems, and critical infrastructure.

The two companies' semiconductor innovation was produced at the Albany Nanotech Complex in Albany, NY, where research scientists work in close collaboration with public and private sector partners to push the boundaries of logic scaling and semiconductor capabilities. This collaborative approach to innovation makes the Albany Nanotech Complex a world-leading ecosystem for semiconductor research and creates a strong innovation pipeline, helping to address manufacturing demands and accelerate the growth of the global chip industry.

In an interview with the BBC, Intel CEO Pat Gelsinger said that the company is no longer considering the UK as a site for a chip fab, due to Brexit, something the company had apparently done prior to Brexit. Now the company is looking for a location in another EU country for a US$95 billion investment for a new semiconductor plant, as well as upgrades to its current plants in Ireland.

Although Intel had not made any firm decisions on a site location prior to Brexit, Gelsinger is quoted as saying "I have no idea whether we would have had a superior site from the UK, but we now have about 70 proposals for sites across Europe from maybe 10 different countries." He continues "We're hopeful that we'll get to agreement on a site, as well as support from the EU... before the end of this year."

Huawei's HiSilicon subsidiary, which specialized in the design and development of semiconductor devices like processors, has made a big announcement today. A while back, the US government has blacklisted Huawei from using any US-made technology. This has rendered HiSilicon's efforts of building processors based on Arm architecture (ISA) practically useless, as the US sanctions applied to that as well. So, the company had to turn to alternative technologies. Today, HiSilicon has announced the new HiSilicon Hi3861 development board, based on RISC-V architecture. This represents an important step to Huawei's silicon independence, as RISC-V is a free and open-source ISA designed for all kinds of workloads.

While the HiSilicon Hi3861 development board features a low-power Hi3861 chip, it is the company's first attempt at building a RISC-V design. It features a "high-performance 32-bit microprocessor with a maximum operating frequency of 160 MHz". While this may sound very pale in comparison to the traditional HiSilicon products, this chip is used for IoT applications, which don't require much processing power. For tasks that need better processing, HiSilicon will surely develop more powerful designs. This just represents an important starting point, where Huawei's HiSilicon moves away from Arm ISA, and steps into another ISA design and development. This time, with RISC-V, the US government has no control over the ISA, as it is free to use by anyone who pleases, with added benefits of no licensing costs. It is interesting to see where this will lead HiSilicon and what products the company plans to release on the new ISA.

Raytheon Technologies (NYSE: RTX), a leading aerospace and defense technology company, and GLOBALFOUNDRIES (GF ), the global leader in feature-rich semiconductor manufacturing, will collaborate to develop and commercialize a new gallium nitride on silicon (GaN-on-Si) semiconductor that will enable game-changing radio frequency performance for 5G and 6G mobile and wireless infrastructure applications.

Under the agreement, Raytheon Technologies will license its proprietary gallium nitride on silicon technology and technical expertise to GF, which will develop the new semiconductor at its Fab 9 facility in Burlington, Vermont. Gallium nitride is a unique material used to build high-performance semiconductors that can handle significant heat and power levels. This makes it ideal to handle 5G and 6G wireless signals, which require higher performance levels than legacy wireless systems.

IBM today unveiled a breakthrough in semiconductor design and process with the development of the world's first chip announced with 2 nanometer (nm) nanosheet technology. Semiconductors play critical roles in everything from computing, to appliances, to communication devices, transportation systems, and critical infrastructure.

Demand for increased chip performance and energy efficiency continues to rise, especially in the era of hybrid cloud, AI, and the Internet of Things. IBM's new 2 nm chip technology helps advance the state-of-the-art in the semiconductor industry, addressing this growing demand. It is projected to achieve 45 percent higher performance, or 75 percent lower energy use, than today's most advanced 7 nm node chips.

SiFive, Inc., the industry leader in RISC-V processors and silicon solutions, today announced that Tenstorrent, an AI semiconductor and software start-up developing next-generation computers, will license the new SiFive Intelligence X280 processor in its AI training and inference processor. SiFive will deliver more details of its SiFive Intelligence initiative including the SiFive Intelligence X280 processor at the Linley Spring Processor Conference on April 23rd.

Tenstorrent's novel approach to inference and training effectively and efficiently accommodates the exponential growth in the size of machine learning models while offering best-in-class performance.

TSMC, the world leader in semiconductor manufacturing, has reportedly begun with plans to start volume production of the 4 nm node by the end of this year. According to the sources over at DigiTimes, Taiwan's leading semiconductor manufacturer could be on the verge of starting volume production of an even smaller node. The new 4 nm node is internally referred to as a part of the N5 node generation. The N5 generation covers N5 (regular 5 nm), N5P (5 nm+), and N4 process that is expected to debut soon. And perhaps the most interesting thing is that the 4 nm process will be in high-volume production in Q4, with Apple expected to be one of the major consumers of the N5 node family.

DigiTimes reports that Apple will use the N5P node for the upcoming Apple A15 SoCs for next-generation iPhones, while the more advanced N4 node will find itself as a base of the new Macs equipped with custom Apple Silicon SoCs. To find out more, we have to wait for the official product launches and see just how much improvement new nodes bring.

Apple relaunched the Mac Pro in 2019 with a return to the original tower form factor and packing 24-core Intel Xeon-W processors paired with AMD Radeon Pro Vega GPUs. Apple is reportedly planning to release a fourth-generation Mac Pro in 2022 with the most powerful Apple silicon yet. The 2022 Mac Pro will be available in three base configurations with 32, 48, and 64 core versions featuring new processors developed by Apple with similar performance and power-efficient core designs as found in the Apple M1.

The entry-level 32 core model will include 24 high-performance cores, 32 GPU cores, 64 GB ram, and will start at 5,499 USD. The mid-range 48 core model will include 36 high-performance cores, 64 GPU cores, 256 GB ram, and will start at 11,999 USD. The highest-end 64 core model will include 48 high-performance cores, 128 GPU cores, 512 GB ram, and will start at 18,999 USD. Storage options will vary from 512 GB to 8 TB of SSD storage as is currently available. These machines are shaping up to be some of the most powerful prosumer computers available if these rumors are true.

According to the official company website, Apple will no longer manufacture its iMac Pro computers based on Intel processors. Instead, the company will carry these models in its store, only while the supplies last. Apple will be replacing these models with next-generation iMac Pro devices that will be home to the custom Apple Silicon processors, combining Arm CPU cores with custom GPU design. Having a starting price of 4990 USD, the Apple iMac Pro was able to max out at 15000 USD. The most expensive part was exactly the Intel Xeon processor inside it, among the AMD GPU with HBM. Configuration pricing was also driven by storage/RAM options. However, even the most expensive iMac Pro with its 2017 hardware had no chance against the regular 2020 iMac, so the product was set to be discontinued sooner or later.

When the stock of the iMac Pro runs out, Apple will replace this model with its Apple Silicon equipped variant. According to the current rumor mill, Apple is set to hold a keynote on March 16th that will be an announcement for new iMac Pro devices with custom processors. What happens is only up to Apple, so we have to wait and see.

ADATA has recently been in a spot of controversy when it comes to their XPG SX8200 Pro solid-state drive (SSD). The company has reportedly shipped many different configurations of the SSD with different drive controller clock speeds and different NAND flash. According to the original report, ADATA has first shipped the SX8200 Pro SSD with Silicon Motion SM2262ENG SSD controller, running at 650 MHz with IMFT 64-layer TLC NAND Flash. However, it was later reported that the SSD was updated to use the Silicon Motion SM2262G SSD controller, clocked at 575 MHz. With this report, many users have gotten concerned and started to question the company's practices. However, ADATA later ensured everyone that performance is within the specifications and there is no need to worry.

Today, we have another report about the ADATA XPG SX8200 Pro SSD. According to a Redditor, ADATA has once again updated its SSD with a different kind of NAND Flash, however, this time the report indicated that performance was impacted. Tom's Hardware has made a table of changes showing as many as five revisions of the SSD, all with different configurations of SSD controllers and NAND Flash memory. We have contacted ADATA to clarify the issues that have emerged, and this is the official response that the company gave us.

Ethereum mining has been a crazy ride over the years. In recent times, it has become very popular due to a huge surge in Ethereum prices, following those of the main coin currently present on the market - Bitcoin. However, Ethereum miners use a customized PC stocked with many graphics cards to mine the Ethereum coin. Any other alternative is not viable and graphics cards have a high hash rate of the KECCAK-256 hashing algorithm. But have you ever wondered could you mine Ethereum on your shiny new Apple M1-equipped Mac? Our guess is no, however, there are still some people making experiments with the new Apple M1 processor and testing its capabilities.

Software engineer Yifan Gu, working for Zensors, has found a way to use Apple's M1 GPU to mine Ethereum. Mr. Gu has ported Ethminer utility to Apple's macOS for Apple Silicon and has managed to get GPU mining the coins. While technically it was possible, the results were rather poor. The integrated GPU has managed to get only 2 MH/s of mining power, which is rather low compared to alternatives (desktop GPUs). Being possible doesn't mean it is a good idea. The software will consume all of the GPU power and it will limit your work with the GPU, so it isn't exactly a profitable solution.

SiPearl has this week announced their collaboration with Open-Silicon Research, the India-based entity of OpenFive, to produce the next-generation SoC designed for HPC purposes. SiPearl is a part of the European Processor Initiative (EPI) team and is responsible for designing the SoC itself that is supposed to be a base for the European exascale supercomputer. In the partnership with Open-Silicon Research, SiPearl expects to get a service that will integrate all the IP blocks and help with the tape out of the chip once it is done. There is a deadline set for the year 2023, however, both companies expect the chip to get shipped by Q4 of 2022.

When it comes to details of the SoC, it is called Rhea and it will be a 72-core Arm ISA based processor with Neoverse Zeus cores interconnected by a mesh. There are going to be 68 mesh network L3 cache slices in between all of the cores. All of that will be manufactured using TSMC's 6 nm extreme ultraviolet lithography (EUV) technology for silicon manufacturing. The Rhea SoC design will utilize 2.5D packaging with many IP blocks stitched together and HBM2E memory present on the die. It is unknown exactly what configuration of HBM2E is going to be present. The system will also see support for DDR5 memory and thus enable two-level system memory by combining HBM and DDR. We are excited to see how the final product looks like and now we wait for more updates on the project.

Samsung has been one of the world's biggest foundries and one of three big players still left in the leading-edge semiconductor process development and manufacturing. However, the Korean giant is always seeking ways to improve its offerings, especially for Western customers. Today, it is reported that Samsung has reportedly talked with regulators in Texas, New York, and Arizona about building a $17 billion silicon manufacturing facility in the United States. The supposed factory is going to be located near Austin, Texas, and is supposed to offer around 1800 jobs. If the deal is approved and Samsung manages to complete the project on time, the factory is supposed to start mass production in Q4 of 2023.

What process is Samsung going to manufacture in the new fab? Well, current speculations are pointing out to the 3 nm node, with Samsung's special GAAFET (Gate All Around FET) technology tied to the new node. The fab is also expected to make use of extreme ultraviolet (EUV) lithography for manufacturing. Samsung already has a facility in the US called S2, however, that will not be upgraded as it is still serving a lot of clients. Instead, the company will build new facilities to accommodate the demand for newer nodes. It is important to note that Samsung will not do any R&D work in the new fab, and the company will only manufacture the silicon there.

Apple has today patented a new approach to how it uses memory in the System-on-Chip (SoC) subsystem. With the announcement of the M1 processor, Apple has switched away from the traditional Intel-supplied chips and transitioned into a fully custom SoC design called Apple Silicon. The new designs have to integrate every component like the Arm CPU and a custom GPU. Both of these processors need good memory access, and Apple has figured out a solution to the problem of having both the CPU and the GPU accessing the same pool of memory. The so-called UMA (unified memory access) represents a bottleneck because both processors share the bandwidth and the total memory capacity, which would leave one processor starving in some scenarios.

Apple has patented a design that aims to solve this problem by combining high-bandwidth cache DRAM as well as high-capacity main DRAM. "With two types of DRAM forming the memory system, one of which may be optimized for bandwidth and the other of which may be optimized for capacity, the goals of bandwidth increase and capacity increase may both be realized, in some embodiments," says the patent, " to implement energy efficiency improvements, which may provide a highly energy-efficient memory solution that is also high performance and high bandwidth." The patent got filed way back in 2016 and it means that we could start seeing this technology in the future Apple Silicon designs, following the M1 chip.

Update 21:14 UTC: We have been reached out by Mr. Kerry Creeron, an attorney with the firm of Banner & Witcoff, who provided us with additional insights about the patent. Mr. Creeron has provided us with his personal commentary about it, and you can find Mr. Creeron's quote below.

When Apple introduces its lineup of devices based on the custom Apple Silicon, many people have thought that it represents the end for any further device customization and that Apple is effectively locking-up the ecosystem even more. That is not the case we have today. Usually, developers working on Macs are always in need of another operating system to test their software and try it out. It means that they have to run some virtualization software like virtual machines to test another OS like Linux and possibly Windows. However, it would be a lot easier if they could just boot that OS directly on the device and that is exactly why we are here today.

Researchers from Corellium, a startup company based in Florida, working on ARM device virtualization, have pulled off an incredible feat. They have managed to get Linux running on Apple's M1 custom silicon based devices. The CTO of Corellium, Mr. Chris Wade, has announced that Linux is now fully usable on M1 silicon. The port can take full advantage of the CPU, however, there is no GPU acceleration for now, and graphics are set to the software rendering mode. Corellium also promises to take the changes it made upstream to the Linux kernel itself, meaning open-source and permissive license model. Below you can find an image of Apple M1 Mac Mini running the latest Ubuntu OS build.

In the upstream semiconductor industry, the major foundries such as TSMC and UMC are reporting fully loaded capacities, while in the downstream, the available production capacity for OSAT is also lacking, according to TrendForce's latest investigations. Given this situation, suppliers of NAND Flash controller ICs such as Phison and Silicon Motion are now unable to meet upside demand from their clients. Not only have many controller IC suppliers temporarily stopped offering quotes for new orders, but they are also even considering raising prices soon because the negotiations between NAND Flash suppliers and module houses over 1Q21 contracts are now at the critical juncture. The potential increases in prices of controller ICs from outsourced suppliers (IC design houses) are currently estimated to be the range of 15-20%.

With regards to the demand side, demand has risen significantly for eMMC solutions with medium- and low-density specifications (i.e., 64 GB and lower), for which NAND Flash suppliers have mostly stopped updating the NAND Flash process technology, while maintaining support with the legacy 2D NAND or the 64L 3D NAND process. This is on account of strong sales for Chromebook devices and TVs. As older processes gradually account for a lowering portion of bit output proportions from NAND Flash suppliers, these companies are exhibiting a lowered willingness to directly supply such eMMC products to clients. As a result, clients now need to turn to memory module houses, which are able to source NAND Flash components and controllers, to procure eMMC products in substantial quantities.

When the US decided to impose sanctions on all US-made technology use in foreign countries (China), the Chinese semiconductor manufacturing industry seemed at the time that it would just completely stop. Without the tools to manufacture silicon, Chinese manufacturers would need to turn to other countries to search for a possible solution. That, however, turned out impossible as the US administration has decided to stop the silicon from going into the hands of Chinese companies, by making a condition that any US-made technology can not get to China. Many of the parts for silicon manufacturing are designed in the US, so they have the power to restrict the use.

Today, in a surprising turn of events, we have information that Shanghai Micro Electronic Equipment (SMEE) has developed a deep ultraviolet (DUV) lithography scanner that is set for delivery in 2021. With a plan to deliver it in the fourth quarter of 2021, SMEE has designed this DUV scanner for the production of 28 nm node. While not being the most advanced node available to date, it is a significant start for Chinese technology independence. ASML, the producer of such scanners, used to be one of the few options there, however, it just gained a competitor. China will deliver its new silicon on a 28 nm process at the end of 2021. Pictured below, you can see how the scanner from SMEE looks like.

IC Insights' November Update to the 2020 McClean Report, released later this month, includes a discussion of the forecasted top-25 semiconductor suppliers in 2020. This research bulletin covers the expected top-15 2020 semiconductor suppliers (Figure 1).

The November Update also includes a detailed five-year forecast through 2024 of the IC market by product type (including dollar volume, unit shipments, and average selling price) and a forecast of the major semiconductor industry capital spenders for 2020. A five-year outlook for total semiconductor industry capital spending is also provided.

Apple's silicon design team has recently launched its "fastest" CPU core ever, found inside the company's M1 processor designed for laptops and mini-PCs. Featuring an eight-core processor, where four cores are represented by low power small configurations, and four big, high-performance design cores, the M1 processor proved to be extremely fast. However, the Apple Silicon processor doesn't seem to cover anything higher than the 13-inch MacBook Pro. And that is about to change. When it comes to higher-end models like the 16-inch MacBook Pro, which provides more cooling area, it is logical that the processor for those designs is a higher performance design.

Enter the world of the Apple M1X processor. Designed for high-end laptops and the most demanding workloads, the new processor aims to create a new performance level. Featuring a 12-core CPU with eight big and four small cores, the M1X processor is going to deliver much better performance than M1. The graphics and memory configuration are currently unknown, so we have to wait and see how it will look like. The M1X is set to arrive sometime in Q1 of 2021, according to the source of the leak, so be patient and remember to take this information with a grain of salt.