SiPearl’s Post

Researchers at University College London have achieved a groundbreaking 938 Gbps wireless data transmission, over 9000 times faster than current 5G speeds. By utilizing a wide frequency range from 5 GHz to 150 GHz and combining high-speed electronics with microwave photonics, they achieved ultra-fast multiplex data transfer. This breakthrough paves the way for 6G technology, capable of downloading over 20 movies in just a second. It also enhances the radio access network (RAN) infrastructure, setting the foundation for future collaborations with smartphone manufacturers and network providers. Article and image credit: @TechExplorers #UCL #WirelessData #6G #TechnologyBreakthrough #HighSpeedInternet #MicrowavePhotonics #RANInfrastructure #FutureTech #TechInnovation #SmartphoneCollaboration #NetworkProviders

Researchers at University College London have achieved a groundbreaking 938 Gbps wireless data transmission, over 9000 times faster than current 5G speeds. By utilizing a wide frequency range from 5 GHz to 150 GHz and combining high-speed electronics with microwave photonics, they achieved ultra-fast multiplex data transfer. This breakthrough paves the way for 6G technology, capable of downloading over 20 movies in just a second. It also enhances the radio access network (RAN) infrastructure, setting the foundation for future collaborations with smartphone manufacturers and network providers. #UCL #WirelessData #6G #TechnologyBreakthrough #HighSpeedInternet #MicrowavePhotonics #RANInfrastructure #FutureTech #TechInnovation #SmartphoneCollaboration #NetworkProviders

Researchers at University College London have achieved a groundbreaking 938 Gbps wireless data transmission, over 9000 times faster than current 5G speeds. By utilizing a wide frequency range from 5 GHz to 150 GHz and combining high-speed electronics with microwave photonics, they achieved ultra-fast multiplex data transfer. This breakthrough paves the way for 6G technology, capable of downloading over 20 movies in just a second. It also enhances the radio access network (RAN) infrastructure, setting the foundation for future collaborations with smartphone manufacturers and network providers. #UCL #WirelessData #6G #TechnologyBreakthrough #HighSpeedInternet #MicrowavePhotonics #RANInfrastructure #FutureTech #TechInnovation #SmartphoneCollaboration #NetworkProviders

#Nano_GPS_Chip Market Share Charges Ahead with Huge Growth 2023-2032 https://lnkd.in/dqbF-tnV The increased use of nano #GPS chips in tracking devices for the prevention of thefts and the #demand for smart #commercial application is the primitive market driver for the #growth of the nano #GPS chip market. Also, advantages offered by them such as minimal power #consumption, constant connectivity, real-time clock, and noise amplifiers are interpreted to further boost the market growth of the nano #GPS chip market. OriginGPS shenzhen esino Shenzhen King-ray Zhonghe Electronic Co., Ltd. Dragonbridge VLSI Solution Analog Devices Analog Devices Asia Pacific Fujitsu Fujitsu Network Communications OLINKO Unicore Communications, Inc. Atmel Corporation

Researchers at University College London have achieved a 938 Gbps wireless data transmission, over 9000 times faster than current 5G speeds. Utilizing a wide frequency range from 5 GHz to 150 GHz, they combined high-speed electronics and microwave photonics, achieving ultra-fast multiplex data transfer. This breakthrough paves the way for 6G technology, capable of downloading over 20 movies in just a second. HASHTAGS The innovation also enhances the radio access network (RAN) infrastructure, setting the foundation for future collaborations with smartphone manufacturers and network providers. #6GInnovation #WirelessBreakthrough #FutureOfTech #HighSpeedData #TechAdvancements #MicrowavePhotonics #NextGenNetworks #DataTransmissionRevolution #UCLResearch #TelecomFuture #SmartphoneTech #FutureConnectivity #RANInfrastructure #TechRevolution

[Event] Thank you to everyone who came to see us at our booth during ISC High Performance. 😊 🙏 We thank our partners and friends from the EuroHPC Joint Undertaking (EuroHPC JU), European Processor Initiative, Samsung Semiconductor and all our customers, partners and collaborators. #SiPearl is building the European high-performance low-power microprocessor dedicated to #supercomputing and #AI inference. This new generation of #microprocessors will first target EuroHPC JU ecosystem, which is deploying world-class supercomputing infrastructures in Europe for solving major challenges in medical research, security, energy management and climate with a reduced environmental footprint. SiPearl is working in close collaboration with its 30 partners from the European Processor Initiative consortium - leading names from the scientific community, supercomputing centres and industry - which are its stakeholders, future clients and end-users. SiPearl employs more than 190 people in France (Maisons-Laffitte, Grenoble, Massy, Sophia Antipolis), Italy (Bologna), Germany (Duisburg) and Spain (Barcelona). #semiconductor #europeantech #frenchtech #cpu #processor #exascale

SiPearl, a European pioneer in high-performance computing and artificial intelligence solutions, has recently announced a strategic collaboration with Samsung Electronics. After conducting an extensive market survey, SiPearl has chosen Samsung's High Bandwidth Memory technology for its exceptional speed, energy-efficiency, and reduced thermal resistance. This partnership is expected to revolutionize the HPC and AI industries by combining SiPearl's Rhea family's best-in-class performance with Samsung's cutting-edge memory technology. We are thrilled to be working with Samsung to enhance SiPearl's supercomputer/AI ecosystem with the latest HBM technology, stated Yongcheol Bae, Executive Vice President and Head of Memory Product Planning at Samsung Electronics. In a rapidly evolving market where high-performance and low-power solutions are crucial, our collaboration aims to deliver superior memory solutions that will drive the development of SiPearl's Rhea series for future HPC and AI applications. #electricalengineering #electronics #embedded #embeddedsystems #electrical #computerchips Follow us on LinkedIn to get daily news: HardwareBee - Electronic News and Vendor Directory

🚀 Developing the World's Best Ultra-Low Power #Tracker Yesterday's training on the #STM32WL3 Multi-Radio SoC was eye-opening. This chip is perfect for an ultra-low power tracker with #Mioty, #NBIoT, #LTEM, #5G #NTN, #GNSS, and wake-up on radio. It packs an ARM Cortex M0 with 256 KB flash and rich peripherals. 🔋 Key Features: • Cellular module with NB-IoT, LTE-M, 5G NTN, and GNSS connects via low-power UART • Wake-up on radio slashes energy consumption • Ideal for automotive supply chain and factory use • Seamless switching between Mioty and cellular at factory gates reduces power usage • Perfect for tracking beer kegs and industrial containers 🌐 Why Mioty Trumps LoRaWAN: • 4.5x more energy-efficient • Double the range in extended mode • More affordable SoCs • Unique wake-up on radio feature 🛠️ What I Offer: • STM32WL3 evaluation kit with HW/SW design service • Free Mioty UL stack on GitHub • License-free PCB loop antennas for various frequencies • Cost-effective PCB loop antenna (690-2700 MHz) • Antenna evaluation kit • Suitable SIM card 💡 My Expertise: As a former head of development for positioning systems and a wireless FAE, I bring a wealth of experience. This knowledge is reflected in #Antennity antennas and our evaluation kits optimised for tracking and metering. 🤝 How Can I Help? • Guide your project • Develop #antenna concepts • License free antennas for almost all technologies • Design complete devices, including enclosures • Open source Mioty stack on #Github • Collaborate with Paul ADAM for software development 📅 Available from January 2025 for projects lasting days to months. Intrigued? Send me a PM or email at harald.naumann (at) lte-modem. com to discuss how we can create the ultimate ultra-low power tracker together!

⚡ Help us build the grid of the future!   The Office of Electricity just launched the American-Made Silicon Carbide (SiC) Packaging Prize competition. This $2.25 million prize aims to expand research and development of SiC semiconductor packaging in the energy marketplace.   Semiconductors manage the flow of electric currents in devices like mobile phones, laptops, and digital cameras. Silicon carbide is the raw material for semiconductors because it can withstand high electricity voltage changes and temperatures. While SiC semiconductors can handle these conditions, conventional packaging overheats, limiting their performance. By upgrading semiconductor devices, it helps to advance EV charging and battery storage.   Submissions due Aug. 30, 2024. Learn more about the prize. 👇 https://bit.ly/3UNSYRV

Semiconductors: The Unseen Heroes. Semiconductors are integral to modern technology, powering devices from smartphones to electric vehicles. Their evolution continues to drive advancements in various sectors, underscoring the importance of sustainable practices in their development. https://lnkd.in/dsJ-cScE #Semiconductors #Sustainability #Innovation #TechForGood #HighPerformance #FutureOfTechnology #PoweringTheFuture #Electronics #GreenTech #IndustryLeaders #SustainableSolutions #SmartTechnology #DigitalTransformation #EngineeringExcellence #TechInnovation