Analysis Taiwan Semiconductor Manufacturing Co., also known as TSMC, plans to spend $100bn over the next three years in response to chip demand and has advised its customers to expect to pay more.
Word of the firm’s investment plan comes from Nikkei Asia, which claims to have seen a letter from TSMC CEO C.C. Wei outlining the investment plan. It follows closely on the heels of Intel CEO Pat Gelsinger outlining Intel’s foundry strategy and spending plans.
The demand for semiconductors reflects the lack of supply, which Falan Yinug, director of industry statistics and economic policy for the Semiconductor Industry Association, in February attributed to pandemic-related demand – IT purchases to support remote work – and the increased use of semiconductors in vehicles.
“The shortage is a reminder of the essential role semiconductors play in so many critical areas of society, including transportation,” said Yinug in a blog post. “This trend will only continue as demand for electronics and connectivity grows.”
Yinug argued that the shortage should be addressed by more federal support for chip manufacturing in the US and attributed the declining US share of the global semiconductor market – from 37 percent in 1990 to 12 percent today – to foreign government subsidies of foreign competitors that have gone unanswered.
Micron chief warns ‘severe shortage’ of DRAM expected to continue this year
A week later, the US-focused trade group sent a letter [PDF], signed by the CEOs of AMD, Intel, and other US chip makers, to US President Joe Biden asking for “substantial funding for incentives for semiconductor manufacturing.”
Biden on Wednesday rewarded the industry by asking Congress, as part of his American Rescue Plan, “to invest $50 billion in semiconductor manufacturing and research, as called for in the bipartisan CHIPS Act.”
If Biden’s plan gets approved, chipmakers may also see a halo effect from adjacent spending contemplated under the economic stimulus program, like $20bn for regional innovation hubs and community revitalization, $14bn for NIST “to bring together industry, academia, and government to advance technologies and capabilities critical to future competitiveness,” and $50bn for the National Science Foundation (NSF) to create a technology directorate focused “on fields like semiconductors and advanced computing, advanced communications technology, advanced energy technologies, and biotechnology.”
Another piece of US legislation proposed last year, the America Foundries Act of 2020, would offer as much as $25bn in grants to US states to fund fab facilities if it becomes law.
US chipmakers have already made comparable commitments, with Intel last month promising $20bn to build two new fabs in Arizona as a part of its planned foundry business.
But Intel will have competition there. Last year, in May, TSMC also tapped Arizona as the location of a planned $12bn semiconductor fab it plans to build. And Samsung Foundry as of January was casting about for government subsidies to build a new fab site in Arizona, New York, or Texas [PDF], a deal estimated to be worth $17bn and part of its plan to spend $116bn on its foundry and chip business over the next decade. Both projects aim to be operational in 2024.
The EU in March, as part of its Digital Compass plan, said it wants to double its chip output to 20 per cent of the global market by 2030. The following day, Apple, a TSMC customer, said it would invest over €1bn in a European chip design center based in Munich, Germany.
In November, trade group SEMI projected that the semiconductor industry will add 38 new 300mm fabs by 2024, and more recently forecast a surge in fab equipment spending.
According to a Congressional Research Service report published October 26, 2020, “Semiconductors: US Industry, Global Competition, and Federal Policy” [PDF], Taiwan, South Korea, and Japan accounted for two-thirds of the world’s semiconductor fabrication capacity in 2019, and China was responsible for 12 per cent of global fabrication.
The report notes that US legislators have become increasingly concerned about the concentration of chip manufacturing in East Asia and the implications that has on the semiconductor supply chains in the event of trade conflict or warfare.
The federal government appears to be ready to pay to shift the center of chip-making gravity to more accurately reflect US interests. But other countries and foreign competitors have their own ideas about where chips should be made. ®
Last week, I missed a real-life meeting because I hadn’t set a reminder on my smartphone, leaving someone I’d never met before alone in a café. But on the same day, I remembered the name of the actor who played Will Smith’s aunt in The Fresh Prince of Bel-Air in 1991 (Janet Hubert). Memory is weird, unpredictable and, neuroscientifically, not yet entirely understood. When memory lapses like mine happen (which they do, a lot), it feels both easy and logical to blame the technology we’ve so recently adopted. Does having more memory in our pockets mean there’s less in our heads? Am I losing my ability to remember things – from appointments to what I was about to do next – because I expect my phone to do it for me? Before smartphones, our heads would have held a cache of phone numbers and our memories would contain a cognitive map, built up over time, which would allow us to navigate – for smartphone users, that is no longer true.
Our brains and our smartphones form a complex web of interactions: the smartphonification of life has been rising since the mid 2000s, but was accelerated by the pandemic, as was internet use in general. Prolonged periods of stress, isolation and exhaustion – common themes since March 2020 – are well known for their impact on memory. Of those surveyed by memory researcher Catherine Loveday in 2021, 80% felt that their memories were worse than before the pandemic. We are – still – shattered, not just by Covid-19, but also by the miserable national and global news cycle. Many of us self-soothe with distractions like social media. Meanwhile, endless scrolling can, at times, create its own distress, and phone notifications and self interrupting to check for them, also seem to affect what, how and if we remember.
So what happens when we outsource part of our memory to an external device? Does it enable us to squeeze more and more out of life, because we aren’t as reliant on our fallible brains to cue things up for us? Are we so reliant on smartphones that they will ultimately change how our memories work (sometimes called digital amnesia)? Or do we just occasionally miss stuff when we don’t remember the reminders?
Neuroscientists are divided. Chris Bird is professor of cognitive neuroscience in the School of Psychology at the University of Sussex and runs research by the Episodic Memory Group. “We have always offloaded things into external devices, like writing down notes, and that’s enabled us to have more complex lives,” he says. “I don’t have a problem with using external devices to augment our thought processes or memory processes. We’re doing it more, but that frees up time to concentrate, focus on and remember other things.” He thinks that the kind of things we use our phones to remember are, for most human brains, difficult to remember. “I take a photo of my parking ticket so I know when it runs out, because it’s an arbitrary thing to remember. Our brains aren’t evolved to remember highly specific, one-off things. Before we had devices, you would have to make a quite an effort to remember the time you needed to be back at your car.”
Professor Oliver Hardt, who studies the neurobiology of memory and forgetting at McGill University in Montreal, is much more cautious. “Once you stop using your memory it will get worse, which makes you use your devices even more,” he says. “We use them for everything. If you go to a website for a recipe, you press a button and it sends the ingredient list to your smartphone. It’s very convenient, but convenience has a price. It’s good for you to do certain things in your head.”
Hardt is not keen on our reliance on GPS. “We can predict that prolonged use of GPS likely will reduce grey matter density in the hippocampus. Reduced grey matter density in this brain area goes along with a variety of symptoms, such as increased risk for depression and other psychopathologies, but also certain forms of dementia. GPS-based navigational systems don’t require you to form a complex geographic map. Instead, they just tell you orientations, like ‘Turn left at next light.’ These are very simple behavioural responses (here: turn left) at a certain stimulus (here: traffic light). These kinds of spatial behaviours do not engage the hippocampus very much, unlike those spatial strategies that require the knowledge of a geographic map, in which you can locate any point, coming from any direction and which requires [cognitively] complex computations. When exploring the spatial capacities of people who have been using GPS for a very long time, they show impairments in spatial memory abilities that require the hippocampus. Map reading is hard and that’s why we give it away to devices so easily. But hard things are good for you, because they engage cognitive processes and brain structures that have other effects on your general cognitive functioning.”
Hardt doesn’t have data yet, but believes, “the cost of this might be an enormous increase in dementia. The less you use that mind of yours, the less you use the systems that are responsible for complicated things like episodic memories, or cognitive flexibility, the more likely it is to develop dementia. There are studies showing that, for example, it is really hard to get dementia when you are a university professor, and the reason is not that these people are smarter – it’s that until old age, they are habitually engaged in tasks that are very mentally demanding.” (Other scientists disagree – Daniel Schacter, a Harvard psychologist who wrote the seminal Seven Sins Of Memory: How The Mind Forgets and Remembers, thinks effects from things like GPS are “task specific”, only.)
While smartphones can obviously open up whole new vistas of knowledge, they can also drag us away from the present moment, like it’s a beautiful day, unexperienced because you’re head down, WhatsApping a meal or a conversation. When we’re not attending to an experience, we are less likely to recall it properly, and fewer recalled experiences could even limit our capacity to have new ideas and being creative. As the renowned neuroscientist and memory researcher Wendy Suzuki recently put it on the Huberman Lab neuroscience podcast, “If we can’t remember what we’ve done, the information we’ve learned and the events of our lives, it changes us… [The part of the brain which remembers] really defines our personal histories. It defines who we are.”
Catherine Price, science writer and author of How to Break Up With Your Phone, concurs. “What we pay attention to in the moment adds up to our life,” she says. “Our brains cannot multitask. We think we can. But any moment where multitasking seems successful, it’s because one of those tasks was not cognitively demanding, like you can fold laundry and listen to the radio. If you’re paying attention to your phone, you’re not paying attention to anything else. That might seem like a throwaway observation, but it’s actually deeply profound. Because you will only remember the things you pay attention to. If you’re not paying attention, you’re literally not going to have a memory of it to remember.”
The Cambridge neuroscientist Barbara Sahakian has evidence of this, too. “In an experiment in 2010, three different groups had to complete a reading task,” she says. “One group got instant messaging before it started, one got instant messaging during the task, and one got no instant messaging, and then there was a comprehension test. What they found was that the people getting instant messages couldn’t remember what they just read.”
Price is much more worried about what being perpetually distracted by our phones – termed “continual partial attention” by the tech expert Linda Stone – does to our memories than using their simpler functions. “I’m not getting distracted by my address book,” she says. And she doesn’t believe smartphones free us up to do more. “Let’s be real with ourselves: how many of us are using the time afforded us by our banking app to write poetry? We just passively consume crap on Instagram.” Price is from Philadelphia. “What would have happened if Benjamin Franklin had had Twitter? Would he have been on Twitter all the time? Would he have made his inventions and breakthroughs?
“I became really interested in whether the constant distractions caused by our devices might be impacting our ability to actually not just accumulate memories to begin with, but transfer them into long-term storage in a way that might impede our ability to think deep and interesting thoughts,” she says. “One of the things that impedes our brain’s ability to transfer memories from short- to long-term storage is distraction. If you get distracted in the middle of it” – by a notification, or by the overwhelming urge to pick up your phone – “you’re not actually going to have the physical changes take place that are required to store that memory.”
It’s impossible to know for sure, because no one measured our level of intellectual creativity before smartphones took off, but Price thinks smartphone over-use could be harming our ability to be insightful. “An insight is being able to connect two disparate things in your mind. But in order to have an insight and be creative, you have to have a lot of raw material in your brain, like you couldn’t cook a recipe if you didn’t have any ingredients: you can’t have an insight if you don’t have the material in your brain, which really is long term memories.” (Her theory was backed by the 92-year-old Nobel prize-winning neuroscientist and biochemist Eric Kandel, who has studied how distraction affects memory – Price bumped into him on a train and grilled him about her idea. “I’ve got a selfie of me with a giant grin and Eric looking a bit confused.”) Psychologist professor Larry Rosen, co-author (with neuroscientist Adam Gazzaley) of The Distracted Mind: Ancient Brains in a High-Tech World, also agrees: “Constant distractions make it difficult to encode information in memory.”
Smartphones are, of course, made to hijack our attention. “The apps that make money by taking our attention are designed to interrupt us,” says Price. “I think of notifications as interruptions because that’s what they’re doing.”
For Oliver Hardt, phones exploit our biology. “A human is a very vulnerable animal and the only reason we are not extinct is that we have a superior brain: to avoid predation and find food, we have had to be really good at being attentive to our environment. Our attention can shift rapidly around and when it does, everything else that was being attended to stops, which is why we can’t multitask. When we focus on something, it’s a survival mechanism: you’re in the savannah or the jungle and you hear a branch cracking, you give your total attention to that – which is useful, it causes a short stress reaction, a slight arousal, and activates the sympathetic nervous system. It optimises your cognitive abilities and sets the body up for fighting or flighting.” But it’s much less useful now. “Now, 30,000 years later, we’re here with that exact brain” and every phone notification we hear is a twig snapping in the forest, “simulating what was important to what we were: a frightened little animal.”
Smartphone use can even change the brain, according to the ongoing ABCD study which is tracking over 10,000 American children through to adulthood. “It started by examining 10-year-olds both with paper and pencil measures and an MRI, and one of their most interesting early results was that there was a relationship between tech use and cortical thinning,” says Larry Rosen, who studies social media, technology and the brain. “Young children who use more tech had a thinner cortex, which is supposed to happen at an older age.” Cortical thinning is a normal part of growing up and then ageing, and in much later life can be associated with degenerative diseases such as Parkinson’s and Alzheimer’s, as well as migraines.
Obviously, the smartphone genie is out of the bottle and has run over the hills and far away. We need our smartphones to access offices, attend events, pay for travel and to function as tickets, passes and credit cards, as well as for emails, calls and messages. It’s very hard not to have one. If we’re worried about what they – or the apps on them – might be doing to our memories, what should we do?
Rosen discusses a number of tactics in his book. “My favourites are tech breaks,” he says, “where you start by doing whatever on your devices for one minute and then set an alarm for 15 minutes time. Silence your phone and place it upside down, but within your view as a stimulus to tell your brain that you will have another one-minute tech break after the 15-minute alarm. Continue until you adapt to 15 minutes focus time and then increase to 20. If you can get to 60 minutes of focus time with short tech breaks before and after, that’s a success.”
“If you think your memory and focus have got worse and you’re blaming things like your age, your job, or your kids, that might be true, but it’s also very likely due to the way you’re interacting with your devices,” says Price, who founded Screen/Life Balance to help people manage their phone use. As a science writer, she’s “very much into randomly controlled trials, but with phones, it’s actually more of a qualitative question about personally how it’s impacting you. And it’s really easy to do your own experiment and see if it makes a difference. It’s great to have scientific evidence. But we can also intuitively know: if you practice keeping your phone away more and you notice that you feel calmer and you’re remembering more, then you’ve answered your own question.”
China’s efforts to end its reliance on Microsoft Windows got a boost with the launch of the openKylin project.
The initiative aims to accelerate development of the country’s home-grown Kylin Linux distro by opening the project up to a broader community of developers, colleges, and universities to contribute code.
Launched in 2001, Kylin was based on a FreeBSD kernel and was intended for use in government and military offices, where Chinese authorities have repeatedly attempted to eliminate foreign operating systems.
In 2010, the operating system made the switch to the Linux kernel, and in 2014 an Ubuntu-based version of the OS was introduced after Canonical reached an agreement with Chinese authorities to develop the software.
The openKylin project appears to be the latest phase of that project, and is focused on version planning, platform development, and establishing a community charter. To date, the project has garnered support from nearly two dozen Chinese firms and institutions, including China’s Advanced Operating System Innovation Center.
These industry partners will contribute to several special interest groups to improve various aspects of the operating system over time. Examples include optimizations for the latest generation of Intel and AMD processors, where available; support for emerging RISC-V CPUs; development of an x86-to-RISC-V translation layer; and improvements to the Ubuntu Kylin User Interface (UKUI) window manager for tablet and convertible devices.
China’s love-hate relationship with Microsoft
China’s efforts to rid itself of Redmond are by no means new. As far back as 2000, Chinese authorities ordered government offices to remove Windows in favor of Red Flag Linux.
However, in the case of Red Flag Linux, those efforts ultimately went nowhere after the project failed to catch on. The org was ultimately dissolved, and the team terminated in 2014. Despite its collapse, the project appears to have been rebooted, with a release slated to launch later this year.
This is a story that would repeat on a regular cadence, fueled by periodic spats between Uncle Sam and software vendors.
It’s safe to say the Chinese government has something of a love-hate relationship with Redmond. In 2013, Chinese authorities urged Microsoft to extend support for Windows XP, on which the country still relied heavily.
However, a year later, the Chinese government banned Windows 8 in much of the public sector, just months after Microsoft ended support for Windows XP.
Today, Microsoft controls roughly 85 percent of the desktop operating system market as of June 2022, according to Statcounter.
It doesn’t appear those efforts bought Microsoft’s American partners much in terms of goodwill, with Chinese authorities directing government agencies to throw out all foreign-made personal computers this spring. ®
The Shannon-based project aims to integrate the operations of uncrewed and conventional aircraft to modernise air traffic management in Europe.
A European consortium based in Shannon has received EU funding to develop a flight ecosystem for drones and help integrate uncrewed aircraft into our airspace.
Coordinated by Future Mobility Campus Ireland (FMCI), this consortium will conduct a three-year engineering project to develop, deploy and optimise this type of system in Europe.
Describing itself as Ireland’s “first testbed for future mobility”, FMCI is a development centre based in the Shannon Free Zone focused on innovation in both ground and air mobility tech.
Illustration of the Advanced Aerial Mobility Hub at FMCI. Image: FMCI
FMCI said the research project, known as EALU-AER, represents a “major vote of confidence” in Ireland’s local expertise, industry operators and the resourcing of air mobility development.
Other members of the consortium include Shannon Group, the Irish Aviation Authority, Collins Aerospace, Dublin-based Avtrain, and Deep Blue in Italy.
The consortium has received the three-year funding award to develop uncrewed aviation business opportunities in Ireland, as part of a collaborative research project that could help modernise air traffic management in Europe.
The consortium said the new funding will help build an end-to-end ecosystem that supports the safe operation of uncrewed flights. The goal is to help integrate the operations of both uncrewed and conventional aircraft.
“This will result in developing and building out the critical infrastructure to allow advanced air mobility proliferate across Europe,” FMCI CEO Russell Vickers said.
“It will secure access to airspace for large numbers of drones and eVTOL [electric vertical take-off and landing] aircraft, resulting in safe, cost-effective and sustainable transport of freight and people in the future.”
The project’s work will be based at FMCI’s Advanced Aerial Mobility Research Test and Development Facilities in Shannon, but will include a network of Advanced Air Mobility routes across Ireland.
FMCI has already worked with Avtrain and Shannon Group to trial freight delivery services using beyond visual line of sight (BVLOS) drones.
“We are entering a new era of innovation where the success of the industry will depend on the integration of uncrewed aircraft into our airspace, rather than the segregation of airspace,” Avtrain CEO Julie Garland said.
Funding for the project came from the SESAR 3 Joint Undertaking, which is partnership of private and public sector entities in the EU that aim to accelerate the delivery of the Digital European Sky through research and innovation.
It comes as people are increasingly looking at the potential of drones and uncrewed flight technology. A Dublin City Council initiative recently looked to show how local government can utilise drones in areas such as civil defence, emergency response, public safety and environmental monitoring.
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