#rf transceiver module

[kvndi2send]

https://www.futureelectronics.com/p/semiconductors--wireless-rf--transceiver-ics/sp4082een-l-tr-maxlinear-6164468

High speed data transmission, Bus Transceiver, USB RFreceiver

SP4082E Series 115 kbps 5 V RS-485 / RS-422 Transceiver - NSOIC-8

[g-nicerf]

RF Transmitter and Receiver: Key Components in Wireless Communication

RF (Radio Frequency) transmitters and receivers are fundamental components in modern wireless communication systems. These components play a pivotal role in enabling various wireless technologies, from mobile phones to Wi-Fi routers, to operate seamlessly. In this article, we will explore the significance of RF transmitter and receiver in wireless communication and delve into their essential functions and applications.

RF Transmitter: Sending Signals Wirelessly

An RF transmitter is a crucial element in any wireless communication system. It is responsible for converting electrical signals into radio waves that can travel through the air and be received by compatible devices. RF transmitters are found in a wide range of applications, including radio broadcasting, remote control systems, and data transmission.

One of the key features of an RF transmitter is its ability to modulate the carrier signal with the information to be transmitted. This modulation process allows the transmitter to encode data, voice, or other forms of information onto the radio waves. The modulated signal is then amplified and broadcasted through an antenna.

In modern wireless technologies, such as Bluetooth and Wi-Fi, RF transmitters are the driving force behind the wireless connectivity that allows devices to communicate with each other over short or long distances.

RF Receiver: Capturing and Decoding Signals

On the receiving end, the RF receiver is responsible for capturing the transmitted radio waves, demodulating them, and converting them back into electrical signals that can be processed by electronic devices. RF receivers are integral components in devices like car radios, GPS systems, and satellite television receivers.

The receiver's demodulation process is crucial because it extracts the original information from the modulated carrier signal. This process allows the receiver to recover the transmitted data, audio, or video signal accurately. In essence, the RF receiver acts as the gateway for converting radio waves into usable information.

Applications of RF Transmitters and Receivers:

Wireless Communication: RF transmitters and receiver is the backbone of wireless communication system, enabling devices to transmit voice, data, and multimedia content over the airwaves. They are vital for mobile phones, two-way radios, and wireless Internet connections.

Remote Control Systems: Many remote control devices, including TV remotes, garage door openers, and toy controllers, rely on RF transmitters and receivers to send and receive signals.

Telemetry and Data Acquisition: In industries like agriculture and environmental monitoring, RF technology is used to collect data wirelessly from remote sensors and devices.

Security Systems: Wireless security systems, such as home alarms and surveillance cameras, use RF transmitter and receiver for communication between sensors and control panels.

Conclusion:

RF transmitters and receivers are the unsung heroes of the wireless world, making it possible for us to communicate, control devices remotely, and access information seamlessly. As technology continues to advance, these essential components will continue to evolve and play a pivotal role in our increasingly connected world. Whether it's sending a text message, streaming a video, or unlocking your car with a remote, RF transmitter and receiver is at the heart of it all, making our lives more convenient and interconnected.

For details, please click：

                        Or click：https://www.alibaba.com/product-detail/G-NiceRF-CC68-C1-160mW-433MHz_1600914212665.html?spm=a2747.manage.0.0.78e071d2L4s02Q

For consultation, please contact NiceRF (Email: sales@nicerf.com)

[dnld2rrera]

https://www.futureelectronics.com/p/semiconductors--wireless-rf--rf-modules-solutions--gps/max-8q-0-u-blox-3122418

RF Modules, Digital rf modulator, Proprietary RF Module, Radio frequency module

MAX-8 Series 3.6 V u-blox 8 GNSS TCXO ROM Green 9.7x10.1 mm LCC Module

[lnny2redd]

https://www.futureelectronics.com/p/semiconductors--wireless-rf--rf-modules-solutions--gps/neo-m8q-0-u-blox-9122422

RF transmitter, wireless alarm systems, Bluetooth adapter, GPS Module

NEO-M8 Series 3.6 V -167 dBm Surface Mount u-blox M8 Concurrent GNSS Module

[knth2xonn]

https://www.futureelectronics.com/p/passives--capacitors--aluminum-electrolytic-capacitors/eee-ftj681xap-panasonic-8057989

Aluminum oxide, multi section capacitor, Chip Aluminum Electrolytic Capacitors

EEE-FT Series 6.3 V 680 uF Ø6.3 x 7.7 mm 105° Low ESR Electrolytic Capacitor

[g-nicerf]

RF Transmitter and Receiver: Innovativeness in Communication Technology

In today's technologically advanced world, an efficient and robust RF transmitter and receiver can make all the difference in wireless communication. Whether it's for personal projects or industrial applications, having the right tools is crucial.

Enter the 433MHz transmitter module - a groundbreaking piece in the realm of wireless communication. This module, designed with precision, offers unparalleled performance in transmitting data across vast distances. But, that's not where the story ends. When combined with a 433MHz RF transmitter and receiver, it transforms into a powerful duo, ensuring that your communication is not only seamless but also incredibly stable.

The beauty of the RF transmitter and receiver lies in its adaptability. From home automation systems to complex industrial machinery, its application is vast and varied. One might wonder, what makes it so unique? It's the blend of speed, reliability, and efficiency that these devices bring to the table. When speaking of the 433MHz RF transmitter and receiver, we are talking about a system designed to operate under challenging conditions while still delivering top-tier performance.

In conclusion, if you're on the lookout for a game-changing communication tool, look no further than an RF transmitter and receiver. Especially when you have options like the 433MHz transmitter module and the 433MHz RF transmitter and receiver, you're not only investing in technology but in a future of uncompromised and limitless communication. Dive into the world of wireless communication with confidence, and let the RF transmitter and receiver be your guiding star.

For details, please click：https://www.nicerf.com/products/?keywords=cc68

                        Or click：https://www.alibaba.com/product-detail/G-NiceRF-CC68-C1-160mW-433MHz_1600914212665.html?spm=a2747.manage.0.0.113c71d2fyXK2W

For consultation, please contact NiceRF (Email: sales@nicerf.com).

#GPS #IOT #wireless module #RF module #LoRa module

[brdly2kenss]

https://www.futureelectronics.com/p/semiconductors--wireless-rf--rf-modules-solutions--80211-wlan/lbwa1uz1gc-958-murata-5143837

WI FI module manufacturers, RF Solutions, RF Modules, industrial remote controls

2.4/5 GHz 3.3V Shielded Ultra Small Dual Band WiFi 11a/b/g/n+Ethernet+MCU Module

[jssn2ripp]

High performance circuit, High speed data transmission, module bluetooth

SP3077E Series 16 Mbps ±15 kV ESD Protected RS-485/RS-422 Transceiver-NSOIC-8

[hrmn2dgdn]

High speed data, rf module, rf transmitter, receiver module transceiver circuit

SP3072 Series 0.25 Mbps 3.3 V Half-Duplex SMT RS 485 Transceiver - SOIC-8N

[pmel2kssn]

Bluetooth Module, wifi transceiver, Bluetooth Accessories, Proprietary RF Module

SP4082E Series 115 kbps 5 V RS-485 / RS-422 Transceiver - NSOIC-8

[quartz-components]

The SX1278 LoRa modules are used in Long Range communications. It is a type of low cost RF front-end transceiver module based on SX1278 from Semtech Corporation. The high sensitivity (-136dBm) in LoRa modulation and 20dBm high power output make the module suitable for low range and low data rate applications.

[iotexpo]

Industry trend｜Another domestic manufacturer launches new WiFi6 chip for low-power IPC

AltoBeam recently launched the new generation of Wi-Fi 6 low-power chip ATBM6461, which was independently developed and has complete intellectual property rights. The main selling point of this chip is WiFi6; the other is low power consumption. From these two functional points, it is almost tailor-made for low-power IPC.

WiFi IPC is the most important product line of consumer IPC, accounting for 80% of the market share, and 80% of them use WiFi4 transmission. As users have higher and higher requirements for image quality, interactive experience, and application scenarios, the market needs higher speed, lower power consumption, and more stable transmission technology. The development of WiFi6 technology can meet the needs of industry development. From WiFi, WiFi5 iteration to WiFi6, from single-band to dual-band, they are all in line with the trend of technology and standard iteration.

In the "2024 Visual IoT Consumer Market Analysis Report", we introduced that WiFi6 IPC has the following advantages over WiFi4 IPC:

1. High speed: WiFi6 is about 50% higher than WiFi4 of the same specification, ensuring a smooth video experience at the same distance.

2. Low power consumption: WiFi6 allows devices to plan communications with routers, reducing the time required to keep the antenna powered on to transmit and search for signals, which means reducing battery consumption and improving battery life performance. The actual power consumption is 20%~30% lower than WiFi4.

3. Stability: WiFi6 introduces cellular OFDMA technology to achieve high-density access routing, and parallel transmission is highly real-time. WiFi4 devices access routing by time-division multiplexing to grab network speed, so WiFi6 can solve the probabilistic disconnection and jamming problems of WiFi4.

4. Iteration trend of new and old standards: WiFi4 to WiFi6 is the iteration of new and old standards, similar to cellular 2G to 4G; as prices approach or remain the same, the iteration will be accelerated. At this stage, WiFi6 has the added advantage of differentiated competition with new selling points in addition to performance advantages compared to WiFi4.

On WiFi6, AltoBeam's data said: ATBM6461 supports all modes from MCS0 to MCS11 specified in the Wi-Fi6 protocol, and the physical layer supports modulation and demodulation up to 1024QAM, with a maximum bit rate of 287Mbps. At the same time, the ATBM6461 chip has further significantly improved the RF performance indicators to ensure that more data can be transmitted at a longer distance. ATBM6461 fully supports various advanced technologies in the Wi-Fi 6 protocol, such as LDPC encoding and decoding, Beamforming, Extended Range frame structure (ER-SU) and dual carrier modulation (DCM). Therefore, ATBM6461 can greatly improve the sensitivity index and the transceiver performance in complex network environments, and the signal coverage range can also be greatly increased.

In terms of low power consumption, for battery-powered terminal product applications, ATBM6461 pays special attention to optimizing the power consumption of the chip, and further extends the battery life by supporting the TWT function in the Wi-Fi6 protocol.

It is said that AltoBeam's new low-power WiFi6 product will soon be launched in the North American market. Recently, the main players in the domestic WiFi6 chip market include: Aikewei, Broadcom Integrated, Espressif Technology, Aojie Technology, etc. The "2025 Visual IOT Low Power Market Analysis Report" has started, and industry professionals are welcome to actively participate in our report. We will also include good products and good ideas in the report.

This paper is from Ulink Media, Shenzhen, China, the organizer of IOTE EXPO (IoT Expo in China)

[harsh24mr]

Semiconductorinsight reports

Ultrasonic Sensor Market - https://semiconductorinsight.com/report/ultrasonic-sensor-market/

Vertical Cavity Surface Emitting Laser (VCSEL) Market - https://semiconductorinsight.com/report/vertical-cavity-surface-emitting-laser-vcsel-market/

Voltage Regulator Market - https://semiconductorinsight.com/report/voltage-regulator-market/

Wearable Sensors Market - https://semiconductorinsight.com/report/wearable-sensors-market/

Wireless Connectivity Market - https://semiconductorinsight.com/report/wireless-connectivity-market/

Zigbee Market - https://semiconductorinsight.com/report/zigbee-market/

3D NAND Flash Market - https://semiconductorinsight.com/report/3d-nand-flash-market/

Advanced Driver Assistance Systems (ADAS) Market - https://semiconductorinsight.com/report/advanced-driver-assistance-systems-adas-market/

Automotive Radar Market - https://semiconductorinsight.com/report/automotive-radar-market/

Bluetooth Low Energy (BLE) Market - https://semiconductorinsight.com/report/bluetooth-low-energy-ble-market/

CMOS Power Amplifier Market - https://semiconductorinsight.com/report/cmos-power-amplifier-market/

Compound Semiconductor Materials Market - https://semiconductorinsight.com/report/compound-semiconductor-materials-market/

Embedded FPGA Market - https://semiconductorinsight.com/report/embedded-fpga-market/

Flexible Electronics Market - https://semiconductorinsight.com/report/flexible-electronics-market/

Gallium Arsenide (GaAs) Market - https://semiconductorinsight.com/report/gallium-arsenide-gaas-market/

High Electron Mobility Transistor (HEMT) Market - https://semiconductorinsight.com/report/high-electron-mobility-transistor-hemt-market/

Indium Phosphide (InP) Market - https://semiconductorinsight.com/report/indium-phosphide-inp-market/

Low Dropout Regulator (LDO) Market - https://semiconductorinsight.com/report/low-dropout-regulator-ldo-market/

Microcontroller Unit (MCU) Market - https://semiconductorinsight.com/report/microcontroller-unit-mcu-market/

Optical Transceiver Market - https://semiconductorinsight.com/report/optical-transceiver-market/

Optoelectronic Components Market - https://semiconductorinsight.com/report/optoelectronic-components-market/

Power Amplifier Market - https://semiconductorinsight.com/report/power-amplifier-market/

Radio Frequency (RF) IC Market - https://semiconductorinsight.com/report/radio-frequency-rf-ic-market/

Semiconductor Manufacturing Equipment Market - https://semiconductorinsight.com/report/semiconductor-manufacturing-equipment-market/

Silicon-on-Insulator (SOI) Market - https://semiconductorinsight.com/report/silicon-on-insulator-soi-market/

Smart Grid Market - https://semiconductorinsight.com/report/smart-grid-market/

System-on-Module (SoM) Market - https://semiconductorinsight.com/report/system-on-module-som-market/

Thin Film Electronics Market - https://semiconductorinsight.com/report/thin-film-electronics-market/

Ultrathin and Flexible Electronics Market - https://semiconductorinsight.com/report/ultrathin-and-flexible-electronics-market/

Vertical Integration in Semiconductor Market - https://semiconductorinsight.com/report/vertical-integration-in-semiconductor-market/

Wearable Devices Market - https://semiconductorinsight.com/report/wearable-devices-market/

Wide Bandgap Power Devices Market - https://semiconductorinsight.com/report/wide-bandgap-power-devices-market/

Wireless Sensor Network (WSN) Market - https://semiconductorinsight.com/report/wireless-sensor-network-wsn-market/

Zigbee Wireless Technology Market - https://semiconductorinsight.com/report/zigbee-wireless-technology-market/

3D Printing Electronics Market - https://semiconductorinsight.com/report/3d-printing-electronics-market/

Advanced Semiconductor Packaging Market - https://semiconductorinsight.com/report/advanced-semiconductor-packaging-market/

Analog Mixed Signal Devices Market - https://semiconductorinsight.com/report/analog-mixed-signal-devices-market/

Automotive Power Electronics Market - https://semiconductorinsight.com/report/automotive-power-electronics-market/

Compound Semiconductor Devices Market - https://semiconductorinsight.com/report/compound-semiconductor-devices-market/

Embedded Memory Market - https://semiconductorinsight.com/report/embedded-memory-market/

[jayakody2000lk]

RDS Data Extraction with RFtap and Wireshark

RDS (Radio Data System) is a communication protocol standard used for embedding small amounts of digital information in traditional FM radio broadcasts. It enables radio stations to transmit data such as station identification, program information, and traffic updates. 

To capture and decode RDS data, one method involves using a Software Defined Radio (SDR) along with GNU Radio and RFtap. GNU Radio provides a framework for creating software radios, while RFtap acts as a bridge between GNU Radio and conventional network monitoring and packet analysis tools like Wireshark.

Unfortunately, as of the time of writing, RFtap is no longer being maintained and does not work with the latest version of GNU Radio (version 3.10.10). This post offers guidelines for rebuild and using RFtap with the new GNU Radio release.

This post assumes that the reader has access to DVB-T dongles based on the Realtek RTL2832U and a PC running Ubuntu or Debian Linux. For this, I used an RTL dongle with Rafael Micro R820T tuner and Ubuntu 24.04 LTS release.

As the first step install the following GNU Radio build dependencies into the OS:

sudo apt-get install cmake libboost-all-dev \ liblog4cpp5-dev qtcreator qtbase5-dev \ qt5-qmake python3-cheetah python3-numpy \ python3-pygtk python3-gi python3-gi-cairo \ gir1.2-gtk-4.0

sudo apt install git g++ libgmp-dev swig \ python3-mako python3-sphinx python3-lxml \ doxygen libfftw3-dev libsdl1.2-dev \ libgsl-dev libqwt-qt5-dev libqt5opengl5-dev \ python3-pyqt5 liblog4cpp5-dev libzmq3-dev \ python3-yaml python3-click \ python3-click-plugins python3-zmq python3-scipy \ libcodec2-dev libgsm1-dev libusb-1.0-0 \ libusb-1.0-0-dev libudev-dev \ python3-setuptools

sudo apt install pybind11-dev python3-matplotlib \ libsndfile1-dev libsoapysdr-dev soapysdr-tools \ python3-pygccxml python3-pyqtgraph

sudo apt install libiio-dev libad9361-dev \ libspdlog-dev python3-packaging python3-jsonschema \ python3-qtpy

sudo apt remove swig

Next, clone and build Volk (Vector-Optimized Library of Kernels)

mkdir ~/rf cd rf git clone --recursive https://github.com/gnuradio/volk.git cd volk mkdir build cd build cmake -DCMAKE_BUILD_TYPE=Release -DPYTHON_EXECUTABLE=/usr/bin/python3 ../ make sudo make install sudo ldconfig

After installing the Volk library, we can proceed to build GNU Radio.

cd ~/rf wget https://github.com/gnuradio/gnuradio/archive/refs/tags/v3.10.10.0.tar.gz tar -xvf ./v3.10.10.0.tar.gz cd gnuradio-3.10.10.0 mkdir build cd build cmake -DCMAKE_BUILD_TYPE=Release -DPYTHON_EXECUTABLE=/usr/bin/python3 ../ make -j8 make test sudo make install sudo ldconfig

Now GNU Radio is installed with all necessary components. To enable RTL SDR support, we must build and install Osmocom RTL SDR libraries and SDR components.

cd ~/rf git clone https://gitea.osmocom.org/sdr/rtl-sdr.git cd rtl-sdr mkdir build cd build cmake ../ -DINSTALL_UDEV_RULES=ON make sudo make install sudo ldconfig

cd ~/rf git clone https://gitea.osmocom.org/sdr/gr-osmosdr cd gr-osmosdr mkdir build cd build cmake ../ make sudo make install sudo ldconfig

Before plugging in the RTL-SDR dongle, we need to prevent the kernel modules for the RTL-SDR USB device from being loaded into the kernel and taking ownership of the device. To do this, simply navigate to the /etc/modprobe.d directory and create a file called rtl-sdr-blacklist.conf with the following content:

# This system has librtlsdr0 installed in order to # use digital video broadcast receivers as generic # software defined radios. blacklist dvb_usb_rtl28xxu blacklist e4000 blacklist rtl2832 blacklist rtl2830 blacklist rtl2838

Next, you should clone and build the FM RDS/TMC transceiver module for GNU Radio.

cd ~/rf wget https://github.com/bastibl/gr-rds/archive/refs/tags/v3.10.tar.gz tar -xvf ./gr-rds\ -v3.10.tar.gz cd gr-rds-3.10 mkdir build cd build cmake .. make sudo make install sudo ldconfig

For the next steps, we need to have Wireshark and RFTap. Wireshark can be installed using a package manager.

sudo apt-get install wireshark

To run Wireshark without requiring root user permissions, use the following set of commands:

sudo dpkg-reconfigure wireshark-common sudo usermod -a -G wireshark $USER newgrp wireshark

A message may be prompted in the first step above and proceed by selecting the "Yes" option.

Now restart the OS and continue with the RFTap installation.

The official RFTap repository is no longer being maintained and is not compatible with newer versions of GNU Radio. For this step, please use the RFTap fork available in my GitHub repository. This version has been successfully tested with GNU Radio 3.10.10 and Wireshark 4.2.2.

cd ~/rf git clone https://github.com/dilshan/gr-rftap.git cd gr-rftap mkdir build cd build cmake .. make sudo make install sudo ldconfig

Now get the modifier version of rds_rx_rftap.grc from the above repository.

The Wireshark Dissector file for RDS data is also available in the repository. Copy it to the ~/.config/wireshark/plugins directory. Create the directories if they do not exist.

Launch Wireshark and monitor the loopback (lo) adapter. Start GNU Radio and execute the rds_rx.grc file, which was downloaded in the above step.

If all the steps are performed correctly, the RDS data should appear in the packet list pane as UDP messages. The dissected messages can be observed through the packet bytes pane.

[govindhtech]

Intel Unveiling the OCI Chiplet Co-packaged with CPU

Intel OCI Chiplet In order to give the industry a glimpse into the future of high-bandwidth compute interconnect, Intel plans to showcase their cutting-edge Optical Compute Interconnect (OCI) chiplet co-packaged with a prototype of a next-generation Intel CPU running live error-free traffic at the Optical Fiber Conference in San Diego on March 26–28, 2024.

They also intend to showcase their most recent Silicon Photonics Tx and Rx ICs, which are made to enable new pluggable connectivity applications in hyperscale data centers at 1.6 Tbps.

Optical I/O as a Facilitator for AI Pervasiveness More people are using AI-powered apps, which will drive the global economy and shape society. This trend has been accelerated by recent advances in generative AI and LLM.

The development of larger and more effective Machine Learning (ML) models will be essential to meeting the growing demands of workloads involving AI acceleration. Exponentially increasing I/O bandwidth and longer reach in connectivity are required to support larger xPU clusters and more resource-efficient architectures like memory pooling and GPU disaggregation, which are made possible by the need to dramatically scale future compute fabrics.

High bandwidth density and low power consumption are supported by electrical I/O, or copper trace connectivity, but only at very short ranges of one meter or less. While early AI clusters and modern data centers use pluggable optical transceiver modules to extend their reach, these modules come at a cost and power that cannot keep up with the demands of AI workloads, which will require exponential growth in the near future.

AI/ML infrastructure scaling requires higher bandwidths with high power efficiency, low latency, and longer reach, all of which can be supported by a co-packaged xPU (CPU, GPU, and IPU) optical I/O solution.

Optical I/O Solution Based on Intel Silicon Photonics Based on its proprietary Silicon Photonics technology, Intel has created a 4 Tbps bidirectional fully integrated OCI chiplet to meet the massive bandwidth requirements of the AI infrastructure and facilitate future scalability. A single Silicon Photonics Integrated Circuit (PIC) with integrated lasers, an electrical IC with RF Through-Silicon-Vias (TSV), and a path to integrate a detachable/reusable optical connector are all present in this OCI chiplet or tile.

Next-generation CPU, GPU, IPU, and other System-on-a-Chip (SOC) applications with high bandwidth demands can be co-packaged with the OCI chiplet. With its first implementation, multi-Terabit optical connectivity is now possible with a reach of more than 100 meters, a <10ns (+TOF) latency, an energy efficiency of pJ/bit, and a shoreline density improvement of >4x over PCIe Gen6.

At OFC 2024 in San Diego on March 26–28 (Intel booth #1501), they intend to showcase their first-generation OCI chiplet co-packaged with a concept Intel CPU running live error-free traffic over fiber. This first OCI implementation, which is a 4 Tbps bidirectional OCI Chiplet compatible with PCIe Gen5, is realized as eight fiber pairs carrying eight DWDM wavelengths each. It supports 64 lanes of 32 Gbps data in each direction over tens of meters. Beyond this initial implementation, 32 Tbps chiplets are in line of sight for the platform.

Thanks to Intel’s unique ability to integrate DWDM laser arrays and optical amplifiers on the PIC, a single PIC in the current die-stack can support up to 8 Tbps bidirectional applications and has a complete optical sub-system, offering orders of magnitude higher reliability than conventional InP lasers. One of their high-volume fabrication facilities in the United States produces these integrated Silicon Photonics chips.

It has shipped over 8 million PICs with over 32 million on-chip lasers embedded in pluggable optical transceivers for data center networking, all with industry-leading reliability. In addition to its demonstrated dependability and improved performance, on-chip laser technology allows for true wafer-scale manufacturing, burn-in, and testing. This results in highly reliable and simple subsystems (e.g., the ELS and PIC are not connected by fibers) as well as efficient manufacturing processes.

Another unique selling point of OCI is that, unlike other technical approaches on the market, it does not require Polarization Maintaining Fiber (PMF) and can use standard, widely-deployed single-mode fiber (SMF-28). Due to the potential harm that system vibration and fiber wiggle can do to PMF’s performance and related link budget, it has not been used much.

As a crucial component enabling optical I/O technology, OCI is being developed and implemented by multiple groups within Intel. It demonstrates how Intel’s superior silicon, optical, packaging, and platform integration capabilities enable us to provide a comprehensive next-generation compute solution.

In order to enable ubiquitous AI, Intel’s field-proven Silicon Photonics technology and platform can offer the best optical connectivity options in terms of both performance and dependability.

FAQS What is Intel OCI? Optical Compute Interconnect is referred to as OCI. This is a new chiplet technology that transmits data via light rather than electricity.

What are the benefits of OCI for AI? When it comes to bandwidth, OCI Chiplet is far more generous than conventional electrical connections such as PCIe Gen 6. For AI applications that need to move large amounts of data, this is essential. With a lower power consumption per bit transferred (measured in picoJoules per bit), OCI is more energy-efficient. With less than 10 nanoseconds of delay, data travels thanks to its lower latency. OCI Chiplet is more capable of transmitting data than electrical interconnects over longer distances more than 100 meters

How does OCI work? OCI chiplet, a tiny chip made specifically to be integrated straight with other chips, such as GPUs and CPUs. Faster data transfer is made possible by this co-packaging, which enables a very short physical distance between OCI Chiplet and the main processor.

When will OCI be available? Intel is showcasing OCI Chiplet at the Optical Fiber Conference (OFC), which takes place from March 26–28, 2024, even though there isn’t an official release date yet. This implies that although the technology is still in development, a possible launch is getting closer.

Read more on Govindhtech.com