In the early morning of January 27, Beijing time, AMD today announced its fourth quarter and full-year financial results for fiscal 2020. The report shows that AMD’s fourth-quarter revenue was $3.244 billion, an increase of 53% compared with $2.127 billion in the same period last year and a 16% increase compared to $2.801 billion in the previous quarter; net profit was $1.781 billion, compared with $2.801 billion in the previous quarter. This was a 948% increase from $170 million a year earlier and a 357% increase from $390 million in the previous quarter.
AMD’s fourth-quarter and full-year results exceeded Wall Street analysts’ expectations, and its revenue outlook for the first quarter of fiscal 2021 also exceeded expectations, but its shares still fell more than 2% after the market.
Fourth quarter results summary:
In the fiscal quarter ended December 26, AMD’s net profit was $1.781 billion, and earnings per share were $1.45, which was much better than the same period last year. In the fourth quarter of fiscal 2019, AMD’s net income was $170 million and earnings per share were $0.15. Excluding certain one-time items (not in accordance with U.S. GAAP), AMD’s fourth-quarter adjusted net income was $636 million, compared with adjusted net income of $383 million in the prior year; Shares earned $0.52, compared with adjusted earnings per share of $0.32 a year earlier, beating Wall Street analysts’ expectations. According to data provided by Yahoo Finance Channel, 29 analysts had expected AMD’s fourth-quarter earnings per share to reach $0.47 on average.
AMD’s fourth-quarter revenue was $3.244 billion, an increase of 53% compared with $2.127 billion in the same period last year and a 16% increase compared to $2.801 billion in the previous quarter, which also exceeded analyst expectations. According to data provided by Yahoo Finance Channel, 28 analysts on average expect AMD’s fourth-quarter revenue to reach $3.02 billion.
Divided by business unit, AMD’s fourth-quarter revenue from computing and graphics was $1.960 billion, up from $1.662 billion in the same period last year and $1.667 billion in the previous quarter; operating profit was $420 million, compared with $1.667 billion in the previous quarter. Operating profit in the same period last year was $384 million and operating profit in the previous quarter was $360 million. AMD’s fourth-quarter revenue from enterprise, embedded and semi-custom businesses was $1.284 billion, up from $465 million in the prior year and $1.134 billion in the previous quarter; operating profit was $243 million, compared with Operating profit was $45 million in the year-ago quarter and $141 million in the previous quarter. AMD’s fourth-quarter operating loss from all other businesses was $93 million, compared with an operating loss of $57 million a year earlier and an operating loss of $76 million in the prior quarter.
AMD’s fourth-quarter operating profit was $570 million, compared with $348 million in the same period last year, a 64% increase year-on-year; last quarter’s operating profit was $449 million, a 27% increase from the previous quarter. Excluding certain one-time items (not in accordance with U.S. GAAP), AMD’s fourth-quarter adjusted operating profit was $663 million, compared to $405 million in the year-ago period, an increase of 64%; Operating profit in the last quarter was $525 million, up 26% sequentially.
AMD’s fourth-quarter operating expenses were $881 million, an increase of 47% compared to $601 million a year earlier and a 13% increase compared to $781 million in the previous quarter. Among them, AMD’s R&D spending in the fourth quarter was $573 million, up from $395 million in the same period last year and $508 million in the previous quarter; marketing, general and administrative expenses were $308 million, up from $206 million in the same period last year USD and $273 million in the previous quarter. Excluding certain one-time items (not in accordance with U.S. GAAP), AMD’s adjusted operating expenses in the fourth quarter were $789 million, an increase of 45% compared to $545 million in the prior year period and an increase of $7.06 in the prior quarter. million dollars, an increase of 12%.
AMD’s fourth-quarter gross profit was $1.451 billion, an increase of 53% compared with $949 million in the same period last year and an increase of 18% compared with $1.230 billion in the previous quarter. Excluding certain one-time items (not in accordance with GAAP), AMD’s adjusted gross profit in the fourth quarter was $1.452 billion, an increase of 53% compared to $950 million in the same period last year, and an increase of 53% compared to $12.31 in the prior quarter billion dollars, an increase of 18%. AMD’s fourth-quarter gross margin was 45%, flat from 45% a year earlier and up 1 percentage point from 44% in the previous quarter. Excluding certain one-time items (not in accordance with GAAP), AMD’s adjusted gross margin was 45% in the fourth quarter, flat from 45% in the prior year and up from 44% in the prior quarter 1 percentage point.
Summary of annual results:
AMD’s full-year revenue was $9.763 billion, an increase of 45% from $6.731 billion in fiscal 2019; gross profit was $4.347 billion, an increase of 52% from $2.868 billion in fiscal 2019; gross profit margin was 45%, compared with fiscal 2019 43% year-on-year increase of 2 percentage points; operating profit was $1.369 billion, compared with $631 million in fiscal 2019, an increase of 117% year-on-year; net profit was $2.490 billion, compared with fiscal 2019 Net income was $341 million, an increase of 630% year-over-year; earnings per share were $2.06, compared to $0.30 per share in fiscal 2019, an increase of 587% year-over-year; operating expenses were $2.978 billion, compared to The next fiscal year 2019 was $2.297 billion, an increase of 30% year-on-year.
Excluding certain one-time items (not in accordance with GAAP), AMD’s gross profit for the full year was $4.353 billion, an increase of 51% from $2.874 billion in fiscal 2019; gross margin was 45%, compared to fiscal 2019 Operating profit was $1.657 billion, compared with $840 million in fiscal 2019, an increase of 97% year-on-year; net profit was $1.575 billion, compared with $1.575 billion in fiscal 2019 Net income was $756 million, up 108% year-over-year; earnings per share were $1.29, compared to $0.64 per share in fiscal 2019, up 102% year-over-year; operating expenses were $2.696 billion, compared to In fiscal 2019, it was $2.094 billion, an increase of 29% year-over-year.
AMD’s fourth-quarter results also beat analysts’ expectations. According to data provided by Yahoo Finance Channel, 34 analysts had expected AMD’s full-year revenue to reach $9.55 billion, and 34 analysts had expected AMD’s full-year adjusted earnings per share to reach $1.23.
AMD expects revenue in the first quarter of fiscal 2021 to be approximately $3.2 billion, plus or minus $100 million, a year-on-year increase of approximately 79% and a month-on-month decrease of approximately 1%, exceeding analyst expectations. According to data provided by Yahoo Finance Channel, 27 analysts currently expect AMD’s first-quarter revenue to reach $2.73 billion.
Share price changes:
On the same day, AMD shares rose $0.58 in regular Nasdaq trading to close at $94.71, or 0.62%. In subsequent after-hours trading as of 4:47 p.m. ET on Tuesday (5:47 a.m. Beijing time on Wednesday), AMD shares fell $2.03, or 2.14%, to $92.68. Over the past 52 weeks, AMD’s highest price was $99.23 and its lowest price was $36.75.
Recently, at the first multidisciplinary online forum on new coronary pneumonia, Academician Zhong Nanshan and his team shared the latest research results on the diagnosis of new coronary pneumonia: two detection methods for new coronavirus infection, namely rapid immunoglobulin M (IgM) detection. Test paper and constant temperature amplification chip.
Rapid immunoglobulin M (IgM) test strips
It is reported that the principle of the detection is mainly realized by lateral flow immunochromatography. IgM refers to the immunoglobulin M in serum. It is the first immunoglobulin produced by the human body after exposure to the virus. It is an important indicator of acute or recent virus infection. Generally, it occurs on the 7th day of infection or 3-4 days after the onset of the disease. Symptoms can be detected.
The advantages of this test are: 1. The sampling is simple, and only 0.5 ml of blood sample (serum, plasma, and whole blood can be used) can complete the test; 2. The time for antibody detection results is shorter, which greatly improves the detection time. Efficiency; 3. The detection is convenient, and some grassroots hospitals and medical institutions can also conduct the detection.
Constant temperature amplification chip detection method
In contrast, the constant temperature amplification chip detection method can also be used as an important means to identify the current new coronary pneumonia and influenza in addition to the detection of new coronavirus infection.
According to Academician Zhong Nanshan, the test only needs to be completely broken with the buffer, and then loaded. The biggest advantage of the constant temperature amplification chip detection method is that it can detect multiple patients simultaneously, and distinguish the new coronavirus from influenza A and B, as well as other existing viruses, which plays a very important role in the investigation of suspected cases. .
“Nowadays, smart wearable products have become an indispensable part of our daily life. Products such as earphones, smart watches, bracelets, and smart glasses have become a must for modern people. In September 2014, Apple launched its first smartwatch. Since then, Apple has lifted the curtain of smart wear in the market, and many companies such as Amazon, Samsung, Huawei, OPPO, vivo, etc. have all been involved in the wave caused by smart wear.
Author: Frank Cai
Nowadays, smart wearable products have become an indispensable part of our daily life. Products such as earphones, smart watches, bracelets, and smart glasses have become a must for modern people. In September 2014, Apple launched its first smartwatch. Since then, Apple has lifted the curtain of smart wear in the market, and many companies such as Amazon, Samsung, Huawei, OPPO, vivo, etc. have all been involved in the wave caused by smart wear.
From IDC’s research reports on smart wearable shipments in 2015, 2016, 2019 and 2020, it can be seen that the shipments of smart wearable devices are increasing year by year. Several major manufacturers in 2015 and 2016 include: Xiaomi (37.4% market share), Little Talent (7.4% market share), Lexin and Huawei (5.4% and 5.1%) and Apple (3.4%). In 2020, the main manufacturers of the smart wearable market have undergone a big change. From the above-mentioned manufacturers, it has become a major manufacturer of mobile phone manufacturers, such as Huawei, Xiaomi, OPPO, Apple and BBK. At the same time, in terms of share, it is no longer the dominant situation of Xiaomi. After various mobile phone manufacturers joined the smart wearable market, the situation has become a multi-polar trend. Every mobile phone manufacturer regards smart wear as an important part of the ecological environment of its own products. Take Huawei’s wearable devices as an example. In the fourth quarter of 2015, Huawei’s shipments were only 639,000 units. In the same quarter of 2019, its shipments soared to 6,182 thousand units. By 2020, shipments of wearable devices will still grow slightly, reaching 6,761,000 units. It can be seen that the smart wearable market still has great development potential, and more and more different companies have joined this market to compete for share.
The most important point in developing different new products is how to catch the eyes of customers, and the products need to be able to meet their needs. With the development of science and technology, health has always been a topic of concern to everyone. How to check their own health status in a timely manner will be a focus for customers in the future, and it is also one of the selling points that products need to have. Instead of going to the hospital for regular physical examinations, customers want to know their own situation in a simple way. Therefore, if it is a smartwatch that can integrate sleep monitoring, motion detection, and even support biosignal detection, such as electrocardiogram (ECG), photoplethysmography (PPG), bioimpedance (BIO-Z) measurement, etc. So can this product attract customers to buy it? The answer is yes. Therefore, integrating different health detection functions has gradually become the mainstream trend of smart wearable products. Because this type of smart wearable product or portable health monitor is completely unlike traditional medical equipment (especially in terms of product size and measurement accuracy). Therefore, we call it “new health monitoring products”.
The human body has many types of physiological signals, such as the PPG and ECG just mentioned, what do they represent? ECG, also known as electrocardiogram, can diagnose various heart diseases and abnormal states by measuring electrical signals in the body. In contrast, PPG uses the light transmitter of new health products to generate specific wavelengths of absorbed light that penetrates the skin and blood of the human body, and is reflected to the receiver, where the light signal is converted into an electrical signal by conversion in the product. Information about blood pressure and blood flow in the human body. Finally, customers can see relevant data through portable monitoring products such as smart watches and wristbands.
Figure 3: Simplified PPG detection process
It can be seen that in order to meet the multi-application and multi-channel requirements of new health monitoring products, AFE products need to be able to support multi-application scenarios and multi-channel requirements. In addition, since physiological signals are relatively weak in the body and are easily interfered by the outside world, AFE also needs to be able to detect weak signals, amplify signals, and have appropriate anti-interference capabilities. Taking ECG measurement as an example, people use the differential voltage between two electrodes connected to the human body, or the differential voltage between multiple electrodes (for different lead requirements), and take the average value to reflect the state of the heart. Because electrical signals in the human body are very weak and difficult to detect, high-precision amplifiers are essential to measure these electrical signals. TI can address these applications by using different AFE products and setting up total system solutions. In the detection of ECG, we can use the ADS129x series (here, the ADS1292R is used as an example).
The ADS1292R fully integrates ECG detection and respiratory impedance measurement (RESP) for portable, low-power physiological signal measurement products. There are two low-noise PGAs and two high-resolution ADCs inside the device, which are used for the detection, measurement and amplification of weak electrical signals. At the same time, the gain of the PGA is optional, which can meet different application scenarios. The ADS1292R is very competitive in the AFE market due to its high level of device integration, which integrates functions such as the right leg drive circuit (RLD) and lead-off detection. For customer-specific applications, such as using multiple channels for both ECG and RESP detection and measurement, this can be easily implemented by paralleling two ADS1292Rs. More detailed parameters and usage methods can be found in the data sheet of ADS1292R.
TI provides AFEs with various channels and functional options for different customers, which can meet the application scenarios of different needs, and provide flexible solutions to achieve corresponding functions. In addition to diversified functions and channels, TI’s AFE also has certain advantages in terms of power consumption, noise performance, package size, etc. These characteristics need to be fully considered in the customer’s design. TI’s products can make the design more flexible and convenient, and can help Customers simplify PCB layout and reduce costs.
In addition to the ADS129x series, TI has many highly integrated products that can support various application scenarios. For example, the product AFE4500 can support the above functions as well as bioimpedance analysis and optical biosensing. By measuring bioimpedance, through algorithm calculation and derivation, the composition and physiological data of different substances in the human body can be obtained, such as body fat, moisture, etc. Some terminal products on the market have also realized how to quickly and conveniently obtain the physiological data of the human body. In addition, due to the integration of ECG, PPG and other functions, the use of AFE4500 in portable or smart wearable devices can simultaneously obtain different physiological data. The design not only simplifies the mutual interference of complex circuits and separation schemes, but also brings customers Highlights of the product. For consumers, an end product that can integrate multiple functional measurements must be a differentiated product. There are a wide variety of TI-based AFE products, and the following is a simplified selection table that can be used as a reference for your selection. For more AFE devices, you can check the reference link to learn more about TI’s AFE products.
Teledyne e2v, part of the Teledyne Imaging Group, said today that it will continue as a long-term partner to develop, manufacture and supply CCD detectors for the high-end scientific market for ground science work in space exploration, Earth observation and microscopy, spectroscopy and astronomy .
The CCD wafers are fed into a furnace at the Teledyne e2v facility in the UK. CCD wafers are part of a specialized CCD wafer fabrication process.
e2v is a long-term supplier to the European Space Agency (ESA), NASA, the European Southern Observatory (ESO) and the Japan Aerospace Exploration Agency (JAXA), in order to ensure that the detectors and systems must function properly To deliver scientific-grade visible light detection in an environment that requires a great deal of effort.
Miles Adcock, president of E2v’s Space and Quantum division, commented: “The invention of the CCD more than 50 years ago not only brought about a multi-billion dollar annual imaging industry, it also enabled the exploration of distant worlds and a better understanding of what we have today. Scientific achievement, it’s unbelievable.”
While other technology companies are turning to CMOS technology due to the continuous development of CCD technology, Teledyne Imaging, through its European subsidiary Teledyne e2v and Teledyne DALSA Foundry in Bromont, Canada, continues to provide mission-critical, high-quality CCD detectors that enable The most demanding imaging applications. In addition, the group will continue to invest in complementary technologies such as CMOS, x-ray, spectroscopy and infrared, offering a well-balanced set of business lines to meet a growing customer base in existing and emerging markets.
【Introduction】Wi-Fi is a wireless local area network (LAN) technology that is mainly used indoors, such as at home or in the workplace. The cellular network used by operators is a wide area network (WAN) that can be used both indoors and outdoors. In the industry, the debate around the convergence of Wi-Fi and cellular networks has always been there. With the introduction of a new generation of wireless technologies, Wi-Fi 6 and 5G, a new round of debate has reignited – are the two converging, coexisting or competing?
The two different types of wireless technologies, Wi-Fi 6 and 5G, have coexisted for years, with Wi-Fi and cellular standards increasingly intertwined. Industry bodies including the Wi-Fi Alliance, IEEE, Wireless Broadband Alliance (WBA), Next Generation Mobile Networks Alliance (NGMN), and 3GPP are also joining the discussion, from standards development to potential applications, to enable 5G and Wi-Fi -The interaction and integration between Fi is the main attack direction.
Wi-Fi 6 and 5G
Two wireless technologies go hand in hand
The network standard of Wi-Fi is a variant of IEEE 802.11, and there are different versions such as IEEE 802.11a, 802.11b, and 801.11g. The working frequency band is 2.4 GHz or 5 GHz, of which the 2.4 GHz frequency band supports the IEEE 802.11b/g/n/ax standard, and the 5 GHz frequency band supports the IEEE 802.11a/n/ac/ax standard. Wi-Fi 6 is the Wi-Fi Alliance’s industry name for the IEEE 802.11ax standard in the IEEE 802.11 family of local area network equipment and Internet access standards. Limited security, scalability, and efficiency have always been challenges faced by traditional Wi-Fi technologies. Wi-Fi 6 based on the IEEE 802.11ax standard has significantly enhanced efficiency and performance, it can provide 4 times higher capacity and 75% lower latency, and the speed is almost 3 times that of the previous generation Wi-Fi 5.2.
As the number of Internet users continues to increase, Wi-Fi 6 is gaining enough market traction. According to the latest research report “Wi-Fi 6 Market Global Forecast to 2027” released by Markets and Markets, the global Wi-Fi 6 market size is expected to grow from USD 11.5 billion in 2022 to USD 26.2 billion in 2027, with a compound annual growth rate (CAGR) reached 17.9%, of which ease of deployment is one of the important reasons for Wi-Fi 6 to lead. If the enterprise just upgrades the existing Wi-Fi network to Wi-Fi 6, there will be no significant increase in cost, because Wi-Fi 6 is fully backward compatible, and the original previous generation Wi-Fi equipment It doesn’t have to be eliminated, it can still be used.
5G is the fifth-generation technology standard for cellular networks. Launched by 3GPP Release 15 in 2018 and commercialized by mobile network operators in 2019, 5G is considered a major upgrade to 4G and LTE. 5G networks offer 50 times the speed, 10 times the latency and 1,000 times the capacity of 4G/LTE. Its improved performance, such as increased speed, coverage, reliability and security, is expected to enable a host of new applications across a wide range of industries. Compared with Wi-Fi 6, the advantages of 5G are mainly reflected in service delay, mobile roaming and outdoor coverage. The disadvantage is that the cost of deploying 5G networks indoors is high, and there is a problem of poor terminal compatibility.
Wi-Fi 6 and 5G represent the latest emerging wireless standards in unlicensed and licensed spectrum, respectively, and both Wi-Fi and cellular technologies have come a long way over the years and have remained largely parallel. Neither technology alone can serve the full range of enterprise services and applications. It can also be said that cellular and Wi-Fi indirectly promote each other’s development. As users increasingly rely on high-speed Wi-Fi connections at home or in the office, this drives the need for the same connection quality over cellular networks. Likewise, the ubiquitous nature of cellular connectivity has sparked similar expectations for Wi-Fi, leading to increased emphasis on the development of features such as open roaming.
Figure 1: Over 20 years in technology, Wi-Fi and cellular
Following the path of parallel development (Source: Wikipedia)
If we must make some comparisons between Wi-Fi 6 and 5G, from an application perspective, Wi-Fi 6 is superior to 5G in terms of spectrum, device ecosystem, network cost, ease of deployment, flexibility, and management requirements. . The shortcomings of Wi-Fi 6 are also obvious. It does not perform well in large-scale outdoor coverage scenarios and cannot meet ultra-low latency requirements (
5G and Wi-Fi6
Convergence or competition?
With 5G being heavily invested in media and advertising, one might expect that the next generation of wireless networks in the enterprise will revolve almost entirely around 5G, with Wi-Fi 6 being supportive at best. Is this really the case? Not so, as revealed in Deloitte’s 2021 Global Advanced Wireless Survey of 437 networking executives from nine countries. Of the respondents, 45% of enterprises are testing or deploying both Wi-Fi 6 and 5G in order to enable their advanced wireless network deployments. Nearly all respondents (98%) expect their organizations to use both technologies within three years. Over the next three years, 48 percent of business spending on wireless networks will be on Wi-Fi and 52 percent on cellular technology.
Wi-Fi 6 and 5G share some similarities, such as their ability to achieve gigabit speeds and low latency. But the differences are also stark, mainly in terms of coverage, mobility support and cost.
Because of the lower cost of deployment, maintenance and expansion, especially if the access point needs to serve a larger number of users, Wi-Fi technology is well suited for smaller, less expensive local area networks and has become a popular choice in home and business environments. leading technology. Our commonly used PCs, tablets, smartphones, streaming media devices, televisions and printers are connected to the Internet almost exclusively by Wi-Fi technology.
While cellular networks such as 5G are mainly used for indoor and outdoor wide area networks, devices that move across large geographic areas, in addition to smartphones, 5G is now being deployed on a large scale in connected cars, smart cities, and even large-scale manufacturing operations. Given the extensive experience operating cellular networks, network providers can provide critical functions such as network security, privacy, etc. For some mission-critical services, such as those that require protection from device interference, 5G has clear advantages.
With the better integration of Wi-Fi 6 and 5G, network operators are also starting to direct and optimize traffic on both networks, for example, by shifting more traffic to Wi-Fi networks to reduce congestion on cellular networks. As 5G’s key partner in advanced wireless solutions, Wi-Fi 6 will play an important role in maximizing benefits for businesses through next-generation wireless connectivity. From the perspective of complementary advantages, most of the application scenarios we see are the mixed use of 5G and Wi-Fi6 technologies.
According to IDC, by 2025, more than 152,000 Internet of Things (IoT) devices will be connected per second globally. The advent of Wi-Fi 6 and 5G promises reliable connectivity for mission-critical IoT devices.
in retail business
Analyzing the data collected (purchasing history, inventory trends, and footholds, etc.), forecasting what products should be displayed where, how much of each product should be displayed, and how to develop the products, these decisions will become a breeze.
Advanced wireless networks consisting of 5G and Wi-Fi 6 play a key role in connecting machines and equipment to drive smart factory solutions.
As 5G and Wi-Fi 6 work together, the healthcare sector can introduce telesurgery and remote diagnosis.
in supply chain and logistics
The rollout of 5G and Wi-Fi 6 has really changed the last mile interaction issue with end consumers.
in the Internet of Vehicles
A connected car can provide in-car Wi-Fi to the user’s device, while the car itself is connected to a 5G cellular network.
Typically, 5G is likely to take the lion’s share of public communications, but sales of Wi-Fi 6 devices are quietly surging. According to Deloitte, shipments of Wi-Fi 6 devices will surpass 5G devices by at least 2.5 billion in 2022, compared with about 1.5 billion 5G devices. Smartphones, tablets, and PCs are the most commonly used Wi-Fi 6-equipped devices, and Wi-Fi 6 is now being used on a large scale including wireless cameras, smart home devices, game consoles, wearables, and AR/VR headsets and other equipment.
The adoption of Wi-Fi 6 and 5G is seen as a strategic imperative that will usher in a new era of wireless access for businesses. With the convergence of Wi-Fi 6 and 5G, businesses can conduct business from anywhere while maintaining employee productivity and the best user experience. In 2021, the Wireless Broadband Alliance (WBA) and the Next Generation Mobile Networks Alliance (NGMN) jointly released a report highlighting the benefits of Wi-Fi6 convergence with 5G, noting that many use cases and verticals can be leveraged from both. Benefit from closer integration between technologies. In addition, 3GPP is increasingly looking to add standards to each new release to enable convergence between Wi-Fi and cellular networks. Likewise, the IEEE, which is sponsored by the Wi-Fi Alliance, has been discussing potential paths for the convergence of Wi-Fi 6 and 5G for years. Now, 83% of service providers, equipment manufacturers and enterprises worldwide will deploy or plan to deploy Wi-Fi 6/6E by the end of 2022, a key finding from the WBA’s latest cross-industry survey.
The latest development of Wi-Fi6
In April 2020, the Federal Communications Commission (FCC) voted unanimously to open the 6GHz band to unlicensed users. The Wi-Fi Alliance named the version of IEEE 802.11ax running at 6GHZ or above Wi-Fi 6E. Wi-Fi 6E can provide low latency and faster data rates, and provides up to seven 160MHz channels necessary for high-bandwidth applications, it greatly expands the available spectrum of Wi-Fi 6, solves the need for billions of words Data transmission problems in applications with knot speed, such as Internet of Things, unified communications, cloud computing, AR and VR, etc.
While Wi-Fi 6 and Wi-Fi 6E are the same technology, their spectrums are different. The frequency band of Wi-Fi 6E is located at 6GHz, which helps to expand the functionality and efficiency of Wi-Fi 6. In terms of compatibility, Wi-Fi 6E access points support backward compatibility, which means that existing Wi-Fi devices can still be used. In terms of shipments, in 2021, more than 50% of Wi-Fi product shipments will be Wi-Fi 6. IDC predicts that by 2025, shipments of Wi-Fi 6 products will reach 5.2 billion, of which 41% will be Wi-Fi 6E.
With the increasing popularity of smartphones around the world, the use of Wi-Fi technology is also increasing. Additionally, governments around the world are building smart cities with public Wi-Fi networks to help various service industries such as education and healthcare. These factors have increased Wi-Fi usage in homes, offices and public spaces, increasing sales of Wi-Fi chipsets.
According to data from the Wi-Fi Alliance, Wi-Fi users will demand more efficient, reliable and secure connections in 2022, with nearly 18 billion Wi-Fi devices expected to be in use. According to the Organization for Economic Co-operation and Development (Organization for Economic Co-operation and Development), by 2025, the number of households with computers worldwide is expected to increase to 1,262.47 million. The massive increase in computer usage has created a market opportunity for Wi-Fi chips.
Mordor intelligence forecasts indicate that the global Wi-Fi chipset market will grow at a CAGR of 4.4% between 2022 and 2027.More and more chip products supporting Wi-Fi 6 are on the market
The Qorvo QPF7552 is an integrated high-power front-end module (iFEM) designed for Wi-Fi 6 systems. The iFEM integrates bandBoost technology to create an easy-to-use and extremely compact solution for Wi-Fi tri-band applications that require simultaneous operation in two radios in the 5GHz band. The integrated bandBoost technology reduces the band power in the UNII1-2a to a level suitable for use on the same board. The Qorvo QPF7552 integrates a 5GHz power amplifier (PA), BandBoost BAW filter, single-pole double-throw switch (SP2T), and bypass low-noise amplifier (LNA) in a single device with high integration and small form factor.
Figure 2: Integrated high-power front-end module designed for Wi-Fi 6 systems
QPF7552 functional block diagram (Source: Qorvo)
The NXP IW612 is the industry’s first family of single-chip tri-band radios supporting Wi-Fi 6, Bluetooth 5.2 and 802.15.4, enabling simultaneous transmit and receive, bringing higher performance to smart solutions. In smart homes where Thread or Bluetooth devices need to be connected to the cloud using an integrated Wi-Fi 6 radio, the IW612 is also ideal for border router, bridge and gateway applications.
Figure 3: NXP IW612 Single Antenna Application Schematic
(Image source: NXP)
MediaTek’s latest Filogic connectivity chipset, the Filogic 830 Wi-Fi 6/6E SoC, packs multiple functions into a compact ultra-low power 12nm SoC, allowing customers to design different solutions for routers, access points and mesh systems . The SoC integrates four Arm Cortex-A53 processors running at up to 2GHz per core, processing power up to 18,000 DMIPs, dual 4×4 Wi-Fi 6/6E, connection speeds up to 6Gbps, two 2.5 Gigabit Ethernet interfaces and A series of peripheral interfaces. The Filogic 830’s built-in hardware acceleration engine is used for Wi-Fi offloading and networking for faster, more reliable connections. In addition, the chipset supports MediaTek FastPath low-latency application technology such as gaming and augmented reality/virtual reality.
Can it replace Wi-Fi 6/6E?
In the discussion of Wi-Fi 6 and 5G, there is such a word that appears very frequently, that is Private 5G (Private 5G). As the name suggests, private 5G must be related to 5G, and since the launch of 5G, 3GPP Release 16 has introduced 5G New Radio (NR) and enhancements to the 5G core for private networks. According to 3GPP TS 22.261, the following is the definition of a private 5G network:
• Private communications: communications between two or more UEs belonging to a restricted UE set.
● Private Network: An isolated network deployment that does not interact with the public network.
● Dedicated slices: Dedicated network slices are deployed for use by specific third parties only.
Private 5G is a secure and resilient next-generation wireless private network designed for custom enterprise use cases that demand ultra-high bandwidth, speed, reliability, and ultra-low latency on secure and private networks. Since private 5G networks consist of small cells, they provide better coverage. In most cases, dedicated 5G operates on unlicensed spectrum, such as CBRS spectrum in the US. However, operators offering dedicated 5G network-as-a-service can use other available spectrum in their dedicated 5G deployments to optimize their networks. In terms of applications, dedicated 5G will initially be used primarily for critical communications, such as factory automation or operational communications across large venues such as airports or distribution centers.
Compared with Wi-Fi 6/6E, dedicated 5G is similar in spectrum ownership mode, deployment mode and business operation support functions. To this end, there is a saying in the industry that dedicated 5G will replace Wi-Fi 6/6E. The reason is: Private 5G has the same advantages as public 5G networks, such as high throughput, huge capacity, low latency, and inherent security, so private 5G has advantages over Wi-Fi 6/6E in applications.
In practice, technologists have found that this is not the case. Not only will dedicated 5G not be a full-scale replacement for Wi-Fi6/6E, but Wi-Fi 6/6E will remain an excellent access option for low-cost network deployments. First, cheap Wi-Fi 6 network equipment, installation, and maintenance costs simply cannot be achieved with 5G or dedicated 5G. Secondly, in order to achieve wider network access, Wi-Fi 6/6E has been established and has larger capacity, and its transmission speed is comparable to wired.
The benefits of Wi-Fi 6 for enterprises are obvious. It can help enterprises quickly build their own networks, and build these networks according to service changes to meet the customized needs of enterprises. For example, an enterprise establishes an office network, and a school establishes a student network access network. In addition to traditional Wi-Fi scenarios, Wi-Fi 6 is also suitable for enterprise VR/AR/4K applications, warehousing and logistics AGVs, and asset management in supermarkets and factories.
5G focuses on public networks and is deployed in scenarios or endpoints with high roaming and latency requirements, such as autonomous vehicles, drones, outdoor personal network access, and factories with ultra-low latency requirements (less than 10ms).
Wi-Fi 6 and 5G are two different technologies that complement each other. Each technology addresses a specific business need or condition. Companies with large outdoor businesses may consider 5G for their wireless network needs. The wireless needs of small and medium businesses can opt for cost-effective Wi-Fi 6 solutions. Organizations with indoor operations or identified access points may opt to use Wi-Fi 6E for their 6 GHz-capable devices. The interoperability between Wi-Fi 6/6E and 5G networks provides seamless connectivity for users’ network applications, and jointly drives the success of network innovation.
As Wi-Fi 6/6E and 5G develop, their respective application areas are bound to overlap. Despite this overlap, the two technologies will remain complementary and neither can replace the other. It is this relationship of integration, coexistence and complementarity that indirectly promotes each other’s development.
The latest data from market research firm IHS Markit shows that the global semiconductor industry’s revenue in 2019 will fall by nearly 13% compared with last year, which means that the recession trend of the industry continues to worsen. But researchers at IHS Markit believe that 5G has the potential to reverse all that.
Len Jelinek, senior director of semiconductor manufacturing at IHS Markit, said that in the history of the semiconductor industry, every market downturn will end with the arrival of a certain innovative technology or product, and new technologies and innovative products can always stimulate a substantial increase in market demand. Such as the World Wide Web, iPhone, etc. Len Jelinek believes that 5G will take up this important task next. As the impact of 5G will extend far beyond the technology industry, it will change all aspects of human society, stimulate new economic activities, and drive the growing market demand for semiconductor chips.
IHS Markit expects that the global semiconductor market revenue will rebound in 2020, from $422.8 billion in 2019 to $448 billion, an increase of 5.9%. This may be a relief to the world’s top semiconductor companies such as Intel, Samsung, TSMC, Qualcomm, Broadcom, etc.
For the decline of global semiconductors in recent years, IHS Markit believes that it is mainly caused by the sharp drop in the prices of DRAM and NAND memory. Samsung also pointed out in an announcement that since the end of 2018, there has been a global oversupply of semiconductor components, which has led to declining industry profits. Samsung Electronics expects operating profit of around $6.5 billion in the third quarter of 2019, down 56 percent from $14.7 billion a year earlier.
However, the decline in 2019 should only be temporary, and the situation will be reversed in 2020. IHS Markit said that with the launch of 5G commercial services in major global markets, 5G smartphones will usher in a period of rapid growth, which will drive the semiconductor industry to resume growth. Smartphones are the largest consumer of the semiconductor industry, with global revenue expected to be $87.7 billion in 2019.
For the smartphone market, institutions such as IDC and Gartner agree with IHS Markit’s judgment that the market size will continue to decline in 2019 and return to growth in 2020. IDC expects the smartphone market to maintain a three-year downward trend in 2019, with a decline of about 2.2%, although 2020 will see a growth of 1.6%. Gartner believes that global smartphone sales in 2019 will be around 1.5 billion units, a year-on-year decrease of 2.5%. However, as 5G services enter the stage of large-scale commercial use in 2020, smartphone sales are expected to resume growth.
According to IHS Markit, the impact of 5G will be all-round, not only will it bring about an increase in smartphone sales, but also promote the development of new business models and support the digital transformation of all walks of life around the world, thereby bringing the semiconductor industry more opportunities. In the report, IHS Markit estimates that by 2035, 5G will generate $1.3-1.9 trillion in economic output in the U.S. alone — nearly as much as U.S. consumers spent on cars in 2016.
Of course, in addition to semiconductor and smartphone manufacturers, there will be more companies benefiting from the development of 5G, such as telecom operators. Operators such as Verizon and AT&T in the United States are actively deploying 5G networks, hoping to gain more opportunities for growth. Verizon expects spending on 5G to have a “significant” impact on its revenue as early as 2021.
ROHM Semiconductor recently announced the expansion of its electronic components factory in Kelantan, Malaysia, with a total investment of MYR 910 million (approximately $217 million).
According to the announcement, ROHM will build a new building on its existing site. With the expansion, ROHM is better able to meet the strong demand for semiconductors and drive multi-site production systems that simulate large-scale integration (LSI) and transistors.
The new building, with a total gross floor area of 29,580 square meters, is scheduled to start construction in the first quarter of 2022 and is expected to be completed in August 2023. After the new building is put into operation, ROHM’s overall production capacity will be increased by about 1.5 times.
It’s been about six months since the first Galaxy A11 was revealed. After numerous other leaks and appearances by regulators, Samsung’s budget phone has finally been released in Thailand. Samsung took the wraps off the new Galaxy A11 and Galaxy A31 in Thailand today, and the Galaxy A11 is now available for purchase online, though only in one memory configuration and a single color option (blue).
Rear triple camera design, large screen, long battery life
That’s Samsung’s mantra around its Galaxy A smartphone lineup, and the Galaxy A11 is exactly that. It has a large 6.4-inch TFT LCD screen with a resolution of 1560 x 720 and a rear triple-camera design of 13MP (f/1.8), 2MP (f/2.4) and 5MP (f/2.4). 2) of the lens and a 4000mAh battery that supports 15W fast charging.
The Galaxy A11 offers 2GB/3GB of RAM and 32GB of expandable storage, but Thailand is currently only available in a 3GB version with a 1.8GHz octa-core processor.
There’s also an Infinity-O Display design with an 8MP selfie camera (f/2.0 aperture), dual SIM functionality, type-C and 3.5mm headphone jacks, and Bluetooth 4.2. All of this is packed into a 161.4 x 76.3 x 8mm body that weighs 177 grams.
The cost-effective Galaxy A11, 3GB RAM and 32GB ROM variant is available in Thailand for 5,199 baht ($162).
It is expected to be available in other regions soon.
The new plug and play Cosel STMGFS80 is the latest series added to the Components Bureau portfolio of isolated DC-DC converters. They are providing a high-quality power solution in industrial mount packaging, making it ideal for transportation applications.
Ready to use out of the box, the device comprises terminal blocks, output voltage potentiometer, input filter and extra Capacitors. The series complies with safety standards UL62368-1 and C-UL EN62368-1.
Offered in two versions, it covers all industrial voltages from 9V to 76V as do the other power options offered on the STMGFS15 and STMGFS30.
The STMGFS8024 works from 9VDC to 36VDC, embracing 12V and 24V systems, and the STMGFS8048 works from 18VDC to 76VDC, covering industrial 24V and 48V systems. Four output voltages are offered: 3.3V/18A; 5V/16A; 12V/6.7A, and 15V/5.4A. The output voltage can be modified by a potentiometer included on the motherboard.
The new device has a typical efficiency of up to 92% and is optimised for convection cooling. The power supplies can be operated within an ambient temperature range of -20C to +70C.
The power module can be assembled right to a customer’s equipment chassis by fixing the base plate utilising the two mounting holes. It can also be clipped to a DIN rail chassis by obtaining the option (N2).
It comes with a five-year warranty and conforms to the European RoHS, REACH and Low Voltage Directives.
Other applications the solution would be suited to are energy, industrial and communication.