We have seen a number of announcements from key industry players about the introduction of DDR5 memory but today's news from Chinese company Jiahe Jinwei marks the beginning of DDR5 mass production. The company announced that DDR5 RAM from Micron had arrived at its facilities and that memory module production could begin. Jiahe Jinwei is the fourth largest memory manufacturer in China and owns memory brands such as Guangwei and Asgard which have recently announced DDR5 modules with capacities of up to 128 GB and speeds reaching 4,800 MHz. Intel is expected to launch their 12th Generation Alder Lake processors later this year with DDR5 support while AMD will introduce support with Zen 4 processors on a new AM5 socket.

Intel only just announced their 11th generation Rocket Lake-S desktop processors last week but we are already receiving information about the next generation Alder Lake-S platform which will finally make the jump to 10 nm. Intel slides for the upcoming family of processors have been leaked and they reveal some interesting information including a claimed 20% single-threaded performance increases from the new Golden Cove core design and 10 nm SuperFin node. The processors will feature Intel Hybrid Technology with a mix of small low-performance cores and large high-performance cores with a maximum of eight each for sixteen total cores. The processors will also include the latest connectivity with both PCIe 4.0 and PCIe 5.0 support along with DDR4 and DDR5 4800 MHz compatibility.

Intel will also be launching a new socket type called LGA1700 with a new package size which will render existing cooling solutions for LGA115X and LGA1200 sockets incompatible. The processors will also come with the launch of a new 600 Series chipset with PCIe 3.0 and PCIe 4.0 support along with the usual complement of USB, SATA, and networking. The entry-level 600-series motherboards will only support DDR4 memory at up to 3200 MHz while high-end Z690 motherboards will include DDR5 support. Intel has confirmed that they intend to launch Alder Lake later this year but it is yet to be known if they are referring to the desktop or mobile series.

As the industry is preparing for a shift to the new DDR standard, companies are trying to adopt the new technology and many companies are manufacturing the latest DDR5 memory modules. One of them is Shenzhen Longsys Electronics Co. Ltd, a Chinese manufacturer of memory chips, which has today demonstrated the power of DDR5 technology. Starting with this year, client platforms are expected to make a transition to the new standard, with the data center/server platform following. Using Intel's yet unreleased Alder Lake-S client platform, Longsys has been able to test its DDR5 DIMMs running at an amazing 6400 MHz speed and the company got some very interesting results.

Longsys has demoed a DDR5 module with 32 GB capacity, CAS Latency (CL) of 40 CL, operating voltage of 1.1 V, and memory modules clocked at 6400 MHz. With this being an impressive memory module, this is not the peak of DDR5. According to JEDEC specification, DDR5 will come with up to 8400 MHz speeds and capacities that are up to 128 GB per DIMM. Longsys has run some benchmarks, using an 8-core Alder Lake CPU, in AIDA64 and Ludashi. The company then proceeded to compare these results with DDR4-3200 MHz CL22 memory, which Longsys also manufactures. And the results? In AIDA64 tests, the new DDR5 module is faster anywhere from 12-36%, with the only regression seen in latency, where DDR5 is doubling it. In synthetic Ludashi Master Lu benchmark, the new DDR5 was spotted running 112% faster. Of course, these benchmarks, which you can check out here, are provided by the manufacturer, so you must take them with a grain of salt.

As we are getting closer to the launch of Intel's next-generation Alder Lake processors, more information is getting leaked. Today, thanks to the leaked presentation slide, we have some more details regarding Intel's Alder Lake offerings in the laptop sector. As a reminder, Alder Lake uses a hybrid approach to core configuration with the similar mindset Arm's big.LITTLE works. There are a few smaller cores for processing smaller tasks that don't need much power and, of course, there are a few big cores that are used for heavyweight processing as some advanced applications require. The small cores are going to be based on the Gracemont microarchitecture, while the big one will use the Golden Cove design.

Thanks to @9550pro on Twitter, we have a slide that showcases 19 different Alder Lake configurations for the laptop segment. At the very bottom, there are configurations with a TDP of just five Watts. That is achieved by having just one big, four smaller cores, 48 EU Gen 12 GPU and that is meant for the tablet segment. Going up, we have different ranges depending on the application device, and the highest end is a chip with 55 Watts of power. That model has eight small and eight big cores, combined with 32 EUs of Gen 12 graphics. All models include integrated graphics. The variations of big and small cores have allowed Intel to have as many as 19 different SKUs, that cover every segment needed, by simply balancing the core count. You can check out the rest of the models below for yourself.

Intel published Linux kernel driver patches that reference a new CPU microarchitecture, codenamed "Lunar Lake." The patch comments refer to "Lunar Lake" as a client platform, and VideoCardz predicts that it could succeed "Meteor Lake." the microarchitecture that follows "Alder Lake," which was recently announced by Intel.

Targeting both mobile and desktop platforms, "Alder Lake" will herald a new 1,700-pin LGA socket for the client desktop, and debut hybrid CPU cores on the form-factor. Expected to be built on a newer silicon fabrication node, such as the 10 nm SuperFin, the chip will combine high-performance "Golden Cove" big cores, with "Gracemont" low-power cores. Its commercial success will determine if Intel continues to take the hybrid-core approach to client processors with future "Meteor Lake" and "Lunar Lake," or whether it will have sorted out its foundry woes and build "Lunar Lake" with a homogeneous CPU core type. With "Alder Lake" expected to debut toward the end of 2021 and "Meteor Lake" [hopefully] by 2022, "Lunar Lake" would only follow by 2023-24.

Intel "Alder Lake" is the first processor generation coming from the company to feature the hybrid big.LITTLE type core arrangement and we are wondering how the configurations look like and just how powerful the next-generation processors are going to be. Today, a Geekbench submission has appeared that gave us a little more information about one out of twelve Alder Lake-S configurations. This time, we are getting an 8-core, 16-threaded design with all big cores and no smaller cores present. Such design with no little cores in place is exclusive to the Alder Lake-S desktop platform, and will not come to the Alder Lake-P processors designed for mobile platforms.

Based on the socket LGA1700, the processor was spotted running all of its eight cores at 2.99 GHz frequency. Please note that this is only an engineering sample and the clock speeds of the final product should be higher. It was paired with the latest DDR5 memory and NVIDIA GeForce RTX 2080 GPU. The OpenCL score this CPU ran has shown that it has provided the GPU with more than enough performance. Typically, the RTX 2080 GPU scores about 106101 points in Geekbench OpenCL tests. Paired with the Alder Lake-S CPU, the GPU has managed to score as much as 108068 points, showing the power of the new generation of cores. While there is still a lot of mystery surrounding the Alder Lake-S series, we have come to know that the big cores used are supposed to be very powerful.

In the latest round of rumors, we have today received some really interesting news regarding Intel's upcoming lineup of desktop processors. Thanks to HKEPC media, we have information about the launch date of Intel's Rocket Lake-S processor lineup and Alder Lake-S details. Starting with Rocket Lake, Intel did not unveil the exact availability date on these processors. However, thanks to HKEPC, we have information that Rocket Lake is landing in our hands on March 15th. With 500 series chipsets already launched, consumers are now waiting for the processors to arrive as well, so they can pair their new PCIe 4.0 NVMe SSDs with the latest processor generation.

When it comes to the next generation Alder Lake-S design, Intel is reported to use its enhanced 10 nm SuperFin process for the manufacturing of these processors. This would mean that the node is more efficient than the regular 10 nm SuperFin present on Tiger Lake processors, and some improvements like better frequencies are expected. Alder Lake is expected to make use of big.LITTLE core configuration, with small cores being Gracemont designs, and the big cores being Golden Cove designs. The magic of Golden Cove is expected to result in 20% IPC improvement over Willow Cove, which exists today in Tiger Lake designs. Paired with PCIe 5.0 and DDR5 technology, Alder Lake is looking like a compelling upgrade that is arriving in December of this year. Pictured below is the LGA1700 engineering sample of Alder Lake-S processor.

An Intel 12th Gen Core "Alder Lake-P" sample surfaced on the Geekbench online results database. The "Alder Lake" microarchitecture introduces heterogenous multi-core to the desktop platform, following its long march from Arm big.LITTLE in 2013, through to laptops with Intel's "Lakefield" in 2019. Intel will build both desktop- and mobile processors using the microarchitecture. The concept is unchanged from big.LITTLE. A processor has two kinds of cores—performance and low-power. Under lower processing loads, the low-power cores are engaged, and the performance cores are only woken up as needed. In theory, this brings about tremendous energy-efficiency gains, as the low-power cores operate within a much higher performance/Watt band than the high-performance cores.

The "Alder Lake" silicon features two kinds of cores—eight "Golden Cove" performance cores, and eight "Gracemont" low-power cores. The "Golden Cove" cores can be configured with HyperThreading (2 logical processors per core). Intel's product managers can create multiple combinations of performance and low-power cores, to achieve total core counts of up to 16, and logical processor counts of up to 24. This also warrants close attention to the composition of the core types, beyond an abstract core-count. A 14-core processor with 6 performance- and 8 low-power cores will perform vastly different from a 14-core processor with 8 performance- and 6 low-power cores. One way to derive core counts is by paying attention to the logical processor (thread) counts, as only the performance "Golden Cove" cores support HTT.