Arctic Semiconductor ’s Post

"Drawing from the lessons learned during the 4G to 5G evolution, it’s clear that prioritizing a 6G Standalone solution will accelerate new revenue opportunities and the delivery of innovative services." #Electronics #Qualcomm #6G #5G #Innovation #TechTrends #WirelessTechnology #NetworkEvolution #FutureOfConnectivity #NextGenNetworks

The first-ever 1.2 Tbit/s #wavelength transmission across the Atlantic was completed succesfully on the Grace Hopper cable, by Colt Technology Services and Ciena. The experiment was conducted using advanced programmable 1.6T coherent technology, WaveLogic 6 Extreme (WL6e). WL6e is the industry's first high-#bandwidth coherent transceiver using state-of-the-art 3nm silicon, capable of carrying capacity up to 1.6 terabits per second per wavelength. The trial resulted in doubling wavelength capacity and reducing power consumption by 50% compared to earlier generation coherent #technology.

How many types of connectors are in intelligent Computing Centers ? Tom Tang DFT Telecom (China) Intelligent Computing Centers (ICC) rely on high-speed connectors to facilitate efficient data transmission and processing. Here are several types of high-speed connectors commonly employed in ICC infrastructure: 1. **High-Speed Backplane Connectors**: These are used within servers, switches, and storage devices to connect the motherboard with other subsystems. With increasing AI computational demands, high-speed backplane connectors play a crucial role in ICCs by supporting high data rates and low latency communication. 2. **High-Speed I/O Connectors**: Examples include CPU sockets, DDR memory slots, PCIe (especially PCIe 5.0 and higher) connectors, and Type-C USB connectors. They facilitate rapid data exchange between processors, memory modules, and external devices within servers and storage systems. 3. **Ethernet Connectors**: RJ45 connectors are common, but for higher speeds, QSFP, QSFP-DD, and other variants are utilized for intra-data center networking. These support speeds ranging from 10Gbps to 100Gbps and beyond, ensuring fast network communication. 4. **Optical Fiber Connectors** (e.g., MPO connectors): In scenarios requiring long-distance, high-bandwidth transmission, multimode or single-mode fiber optic connectors are widely used. MPO connectors, in particular, enable high-density cabling and ultra-high-speed data transfer in data center backbone networks. 5. **RF Connectors** (like Fakra, Mini Fakra, HSD): Primarily used in communication devices, they can also feature in specific wireless transmission or high-frequency signal processing settings within an ICC. 6. **High-Speed Cable Assemblies**: This includes both high-speed copper cables, such as SFP, QSFP direct attach copper cables, and optical solutions like AOC (Active Optical Cables) and DAC (Direct Attach Cables), which are essential for short-range, high-speed data transfers, especially within server cabinets or between racks. 7. **Expansion Card Connectors** for servers: These cater to the expansion of server capabilities, such as GPU accelerators, Network Interface Cards (NICs), and storage expansion cards, ensuring high-speed data exchange and processing acceleration. The selection and implementation of these high-speed connectors in an ICC are guided by specific requirements including data transfer speed, signal integrity, power consumption, cost-effectiveness, and ease of maintenance. With technological advancements, new connector standards and designs continually emerge to address the escalating needs for data processing and transmission. www.dfttelecom.com #datacenter #NVINDIA #FIBEROPTICAL #DFTELECOM #Al #ICC #GPU

Here our white paper, "An Introduction to Direct RF Sampling in a World Evolving Towards Chiplets - Part 1." 📄 In this first part of our series, we delve into the rapidly advancing field of #Direct RF Sampling and its crucial role in the future of Chiplet-based designs. Whether you're an industry veteran or just beginning your journey in #RF technology, this white paper provides valuable insights into the opportunities and challenges presented by these cutting-edge developments. 🔍 Key Takeaways: - Understanding the basics of Direct RF Sampling - Exploring the shift towards chiplet architectures - Insights into the design and implementation of RF systems Join us as we explore the future of semiconductor innovation and the transformative potential of direct RF technology. 📥 Download the white paper now and stay ahead in the fast-evolving world of #Chiplets: - https://lnkd.in/e2UpNG4Y - https://lnkd.in/egNN5-pA #RFSampling #Chiplets #Semiconductors #TechInnovation #WhitePaper #designreuse #designandreuse #chipletmarkeplace #chiplet #directrf #directrf #5G #analogtodigitalconverter #7nm #Gsps #wireless #isscc #isscc23 #5g #fwa #5Gcpe #v2x #mmwave #5G #5GTransport #Microwave #6g #5gnr #directrf #rf #mimo #mmimo #wifi6e #wifi7 #lorawan #loralan #oran #satellitecommunications #quantumcomputing #mwc2023 #5gFWA #chiplets #5gadvanced #digitalbeamforming #beamforming #4096qam #1024qam #sub7GHz #5GFR1 #lpwa #5glite

A groundbreaking prototype for an early 6G network has been unveiled, showcasing the innovative collaboration between Ericsson and Keysight Technologies. This pioneering project utilizes Ericsson's pre-standard protocol stack, specifically designed for new spectrum bands, in conjunction with a test system from Keysight. The successful demonstration establishes a crucial link between an Ericsson basestation testbed and emulated user equipment from Keysight, marking a significant milestone in the development of 6G technology. The primary objective of this demonstration is to evaluate the feasibility of utilizing new frequency ranges for 6G wireless communication systems. By harnessing these untapped spectrum resources, the network aims to maximize bandwidth and optimize available spectrum for enhanced connectivity. However, the transition to higher spectrum bands presents a unique set of challenges, particularly in overcoming obstacles related to radio frequency propagation within these bands. #electricalengineering #electronics #embedded #embeddedsystems #electrical #computerchips Follow us on LinkedIn to get daily news: HardwareBee - Electronic News and Vendor Directory

Sivers Semiconductors AB has been awarded a $5.4M chip development program by a leading Tier-1 telecom infrastructure vendor. This program will support the development of a next-generation, highly-integrated beamforming transceiver for millimeter-wave telecom applications. This new chip will help power telecom networks that rely on millimeter-wave technology—a super-fast form of wireless communication used for 5G networks and high-speed internet. Sivers' new chip will be able to send and receive signals more efficiently over longer distances, helping to create more reliable and energy-efficient wireless connections. Congratulations to the entire Sivers team! #Telecom #MillimeterWave #SiversSemiconductors #WirelessTech

The Avnu Alliance has introduced the first-ever Component Certification Program for Time Sensitive Networking in industrial and automotive applications. This initiative is aimed at ensuring the interoperability of devices utilizing the IEEE 802.1 TSN standards. By certifying components, manufacturers in various sectors can guarantee compliance with core standards, thereby minimizing integration challenges during deployments. Originally established for low latency, deterministic communications in professional audio visual , the Alliance has now expanded its focus to include industrial and automotive Ethernet applications. In 2021, it rolled out a certification program for end devices incorporating TSN, including those implementing the Milan network protocol for professional media. #electricalengineering #electronics #embedded #embeddedsystems #electrical #computerchips Follow us on LinkedIn to get daily news: HardwareBee - Electronic News and Vendor Directory

Mavenir's Focused & Right Choices for Open RAN Ecosystem 1. Mavenir and QCT Introduce vDU Powered by 4th Gen Intel Xeon Scalable Processors With Intel vRAN Boost to Promote High-Performance Flexibility for Open RAN Deployments. 2. Mavenir has been working with Intel diligently to harness and realize the benefits of Intel 4th Gen Xeon processors with Intel vRAN boost. The close collaboration has yielded extensive optimizations among the DU software, Intel’s processor, and the latest advancements in Intel’s FlexRAN reference software across 4G and 5G. These new capabilities and features will now be available on DU platforms, including QuantaEdge EGX77B-1U. 3. Mavenir's collaboration with Qualcomm has already successfully demonstrated the integration of #inline L1 acceleration, with the Qualcomm X100 5G RAN accelerator card and Mavenir’s vDU software solution in a live massiveMIMO use case, achieving a capacity of 3Gbps in a multi-user environment. 4. Mavenir has also announced a significant expansion of its OpenBeam™ radio portfolio with the launch of three new next-generation platforms that deliver advanced capabilities across diverse scenarios. This major enhancement of the OpenBeam solution set will further accelerate the deployment of 3GPP and O-RAN-compliant radios, with a focus on energy efficiency and engineered to support ULPI (Uplink Performance Improvement) functionality for Active Antenna Units (AAUs), in #addition to the current O-RAN 7.2b specification. https://lnkd.in/g7auWdv3

The new advanced device developed for 6G networks combines two polarized terahertz (THz) signals of the same frequency into one, allowing data transmission speeds of up to 190 Gbps, significantly surpassing current 5G speeds. It offers high flexibility across frequencies, achieving a 40% fractional bandwidth, which is a record in this technology. https://lnkd.in/dR7je_eM

"A new D-band CMOS transceiver chipset with 56 GHz signal-chain bandwidth achieves the highest transmission speed of 640 Gbps for a wireless device realized with integrated circuits, as reported by researchers from Tokyo Tech and National Institute of Information and Communications Technology. The proposed chipset is highly promising for the next generation of wireless systems. To achieve faster speeds and handle increasing data traffic, wireless systems are operating in higher millimeter-wave frequency bands. Current high-band 5G systems offer speeds as high as 10 Gbps and operate in frequency bands between 24–47 GHz. The next generation of mobile communication systems, is exploring even higher frequency bands." #wireless #communications