Highlights Industry Deep-dive Report: The Semiconductor and Semiconductor Equipment Industry (“Semis”) has had a fantastic run over the past 12 months. We have been overweight it since June and the trade is ahead of the market by 14%. In this deep-dive report into the sector, we aim to decipher the outlook for 2022. To do so, we review the supply chain, target markets, macroeconomic backdrop, and fundamentals. Production Model: Semiconductor production is divided among IC designers and manufacturers. This separation of design and manufacturing is called the fabless model, which has grown in prominence as the pace of innovation made it increasingly difficult for firms to manage both the capital intensity of manufacturing and the high levels of R&D spending for design. Designed In The US, Made In Asia: The entire semiconductor industry depends on the cooperation between two regions: North America that houses global leaders in designing the most sophisticated chips, and Asia which is home to companies that have the technology to manufacture them. Geopolitical risks: As a result, the Semis are in the crosshairs of rising tensions between China and the US with both countries seeking chips independence and pushing for onshoring. Conventional end-demand markets span the entire US economy but can be grouped into several main categories. Computing or data processing electronics is one of the largest markets, followed by Communications, Consumer Electronics, and Autos. Growth rates vary across segments. The novel markets for semis came on the back of emerging technologies, such as IoT, 5G, automation, AI, self-driving vehicles, and others, all of which require increasing chip sophistication. These markets present a tremendous long-term opportunity for the industry. Global semis sales grew at 25 percent in 2021. In 2022, market growth is expected to slow to 10 percent. Earnings growth has also been slowing. The industry is not immune to rising costs of raw materials, labor shortages, and supply-chain disruptions. While earnings growth is slowing, operating margins are set to expand over the next 12 months. Valuations are extended: The semis' earnings growth expectations are on par with the S&P 500, but trade with a 14% premium to forward multiple. The macroeconomic backdrop is unfavorable: Tighter monetary policy, slowing economic growth, and a slowdown in China, are headwinds for this hyper-cyclical industry. Investment Outlook: We conclude that we are bullish on the industry on a structural basis but are more ambivalent about its prospects over the next 3-6 months downgrading our portfolio overweight to an equal-weight. Feature Performance The Semiconductors and Semiconductor Equipment industry (“Semis”) has received an unexpected boost during the pandemic: Lockdowns, coupled with helicopter cash drops, have spurred demand for durable goods, and foundries could not work fast enough to produce chips, direly needed by autos, consumer electronics, and computer manufacturers. Since the beginning of the pandemic, Semis have outperformed the S&P 500 by roughly 62%, and the Tech sector by just under 30% (Chart 1). Only this year, Semis are almost 20% ahead of the market (Table 1). This poses a question – can this outperformance continue in 2022, or will the economic growth slowdown and waning demand for goods end this superior run? Chart 1Shortages Boosted Performance Of Semis Sneak Preview: While we believe in Semis as a multi-year structural theme, we recommend a tactical equal weight. We have been overweight Semis since June and the trade is ahead of the market by 14.5%. We are closing the overweight on the back of a strong run, rich valuations, slowing earnings growth, and an unfavorable macroeconomic backdrop. Table 1Semis Had A Strong Run Over The Past 12 Months Semiconductor Primer What Are Semiconductors? I have a confession to make – I have always had only the fuzziest idea of what is inside my computer or under the hood of my car. Well, apparently, it is semis, aka chips, that are the brains of any electronic device that we come across in our daily life. I like the comparison of chips to modern-day bricks, serving a wide range of industries. The American Semiconductor Association (ASA) calls them a “marvel of modern technology,” which they truly are, being a foundation of modern life, packed with up to tens of billions of transistors on a piece of silicon the size of a quarter. Chips power not only our phones and vacuum cleaners, but also innovative medical devices, robots, and wireless internet. Semiconductors make all sectors of the US economy, from farming to manufacturing, more efficient. The number of applications of semis is innumerable, and recent shortages made all of us more aware of these, behind-the-scenes, engines of our daily life. The US Semis Brag Sheet The US semiconductor industry is the worldwide industry leader with about half of the global market share (47%) and sales of $208B in 2020.1 The industry employs over a quarter-million people and supports nearly 1.6 million additional US jobs. Semis are a top-five US export, with more than 80% of industry sales going to overseas customers. The US exported $49B in semiconductors in 2020. Rapid innovation has allowed the industry to produce exponentially more products at a lower cost, a principle known as Moore’s law. How Are Semiconductors Made? R&D is the first step in the production process. Firms involved in semiconductor design develop nanometer-scale integrated circuits that perform the critical tasks that make electronic devices work, such as connectivity to networks, computing, storage, and power management. Chip designers must use highly advanced electronic design automation (EDA) software and reusable architectural building blocks (“IP cores”) to do this task.2 The process requires significant investment: Developing a new chip can cost over 100M dollars and requires many years of work by hundreds of engineers. As chips have become increasingly complex, development costs have rapidly risen. Design is the part of the process that differentiates one type of chips from another and constitutes a competitive moat for the companies that design them. Design is chiefly knowledge- and skill-intensive, accounting for 65% of the total industry R&D and has the highest value-add of the entire production process. Manufacturing is a complex process. Once chips are designed, the process moves to production. Often the chip production starts with processing sand that contains a large amount of silicon. Sand is purified and melted into solid cylinders, that are then sliced into very thin silicon discs, polished to a flawless finish, called “blank wafer.” Wafers are then printed with intricated circuit designs, which are later divided into tiny individual semiconductors, called dies. Dies are later packaged into finished semiconductors that can be embedded into electronic devices. This process is summarized in Chart 2. Cross-Border Supply Chains Types Of Semiconductor Production Companies The chip production process is usually divided between the three types of players that operate in the different segments of the supply chain. IC designing companies or fabless firms focus only on design and outsource fabrication to pure-play foundries and outsourced assembly and test (OSAT) firms. This segment of the value chain is dominated by the US firms such as Qualcomm, Broadcom, Nvidia, and AMD, which account for roughly 60% of all global fabless firm sales (Chart 3). Semiconductor manufacturing companies, aka foundries, receive orders from the IC designing companies and purchase raw materials and equipment to proceed in the chip manufacturing process. TSMC, Global Foundries, and United Microelectronics Corporation (UMC) are some of the largest and are located in Asia. The share of chips manufactured in China, South Korea, Southeast Asia, Taiwan, and other regions in East Asia has soared to 75% (Chart 4). Integrated Device Manufacturers (IDM) cover the entire production process from design to manufacturing. In terms of revenue, Samsung, Intel, and SK Hynix are the world’s three top IDM companies. Recently, there was a global push towards reintegration for geopolitical reasons (more about that later). The fabless model, or separation of chip design and manufacturing, has grown along with the demand for semiconductors since the 1990s, as the pace of innovation made it increasingly difficult for many firms to manage both the capital intensity of manufacturing and the high levels of R&D spending for design. Since China joined the WTO in late 2001, global manufacturing offshoring switched to a higher gear with the semiconductor industry becoming a poster child for the movement. Except for Intel, which is the only US company that both designs and manufacturers chips, other US corporations completely outsourced their manufacturing to Asia. Designed In The US, Made In Asia As of 2020, the US market share of the global semiconductor market was 47% (Chart 5), dominated by fabless firms. Given the importance of semiconductor design in terms of value-added in the manufacturing process, the US must remain a leader in this stage of production. The US firms spend 17% of sales on R&D, more than any other country, to maintain a competitive edge (Chart 6). And this decisive advantage translates into a disproportionate share of industry revenue. While specializing in chip design creates a competitive moat for the US semi companies, it also makes them vulnerable to supply-chain disruptions: At present only a little over 10% of all chips are manufactured in the US compared to 37% back in the ‘nineties (Chart 7), with the lion’s share of the most sophisticated chips manufactured in Asia. With the separation of design and manufacturing, the US, which is a leader in design, is falling behind as a location for manufacturing technology. As a result, the entire semiconductor industry depends on the cooperation between two regions: North America that houses global leaders in designing the most sophisticated chips, and Asia that is home to companies that have the technology to manufacture the most complex of chips. Both ends (design and manufacturing) of the semiconductor industry also have high barriers to entry due to the technology required to compete in the field, which creates a big problem since major geopolitical players now aim to break down existing supply-chains and to push their corporations towards domestic vertical integration. Supply Chain Fragility The fragility of the semiconductor supply chains was best revealed during the pandemic-induced shutdown. With the global economy coming to a virtual hold, various industries had to cancel their semi orders, and foundries took some of the capacity offline. However, demand for goods rebounded unexpectedly and sharply, jump-started by global fiscal and monetary stimulus. It is important to note that a semiconductor manufacturing plant cannot be simply turned on after a period of inactivity. Not only does it require time to be brought back to life, but also the chip production itself is a month-long process. Semiconductor companies did their best during the lockdown to meet demand and even got an exemption from government-imposed lockdowns as “essential” businesses. The industry managed to increase production to address high demand, shipping more semiconductors every month than ever before by the middle of 2021 (Chart 8). However, chip shortages ensued, because supply, despite its best efforts, could not keep pace with the demand. Expanding semi manufacturing capacity was not an option: Building a fab and bringing it up to full capacity can take anywhere from 24 to 42 months at a price tag of anywhere from $1.7bn to $5.4bn, depending on the quality of the chips manufactured.3 Most industry analysts expect the shortage to linger into 2022.4 Chart 8The Industry Worked Hard To Meet Demand For Chips Geopolitics Semiconductor Industry Is At The Epicenter Of Geopolitical Tensions The semi shortages also came within the broader context of the changing world order and the resulting competition for the key resource. As a result, governments around the globe took action to secure the key commodity for themselves and to establish its production on domestic soil. In the US, once semi-conductor shortages started crippling US manufacturing back in April 2021, President Biden held a semiconductor summit at the White House. In addition, he signed an executive order calling for a 100-day review of the US supply chains. In June, the US Senate passed the bipartisan US Innovation and Competition Act, which includes $52 billion in federal investments for semiconductors (building from the CHIPS for America Act announced in January). The House of Representatives excluded the $52 billion from its version of the bill but most of this semiconductor funding will likely be reinstated in the final compromise version of the bill. We expect the funding to help US-based firms, like Intel, as well as non-US firms, such as Taiwan Semiconductor, which is putting billions of dollars into its next-generation production plant in Arizona. And last, the administration agreed with Japan to cooperate on semiconductor development and supply chains.5 Moving east, the European Commission also expressed its concerns that the Old Continent was naïve to outsource chip manufacturing and now plans to double the EU’s share of global chip production from the current 10% to 20% by 2030 under its new Digital Compass plan which aims to boost “digital sovereignty” by funding various high-tech initiatives. In China, policymakers realized the importance of semis in 2013, and while China will not achieve full self-sufficiency anytime soon, ongoing US sanctions and political pressure will only accelerate the Middle Kingdom’s push for semiconductor supply independence. Already, the new five-year plan that was released this year, prioritizes technological innovation including in the semiconductor space. Japan and South Korea are also devoting state resources to the industry, and global policymakers are seeking ways to reduce dependency on Taiwan due to the risk of conflict over the long run. The broader implication of the global semiconductor production onshoring is two-fold. First, existing supply chains will come under pressure as nations will force their respective semiconductor companies to undergo a complete vertical integration, resulting in much steeper chip prices, unless governments come out with further extravagant subsidies. This transformation also implies higher demand for the output of semiconductor equipment manufacturers as nations are scrambling to build onshore manufacturing facilities. Target Markets Most industries are run on chips, but overall usage can be grouped into several key categories, such as Computers, Communications, Consumer Goods, Autos. These traditional markets account for most of the demand for chips. Conventional Chip Uses Computing aka Data Processing Electronics is one of the largest segments and comprises nearly one-third of all semiconductor usage. This segment represents the demand for chips used for personal computers, servers, and cloud storage. This is one of the fastest-growing categories, which SIA projects to grow at 21% per year6 (Chart 9). While this expected rate of growth is impressive, it is set to slow in the coming year as demand for personal computers is starting to decelerate (Chart 10). On the upside, annual growth in servers continues to rebound, with the year-on-year increase in global server shipments close to 15% (Chart 11). Chart 10Demand For PCs Is Coming Off High Levels... Chart 11While Demand For Servers Is On The Rise Communications Electronics is the second largest chips market. These chips power wireless communications and are getting a boost from the rollout of 5G networks. This segment also benefits from the recently passed US Infrastructure Bill, which has funds earmarked for wireless communication. However, communications chips expect tepid growth of just 1% as the speed of the 5G rollout is disappointing, and many consumers are unwilling to upgrade their phones: Demand for smartphones has only recently turned up (Chart 12). Consumer Electronics is a segment that is expected to contract in the coming year as spending on consumer goods has already exceeded the pre-pandemic trend and has turned down (Chart 13). Chart 12Demand For Smart Phones Has Started To Pick Up Chart 13Demand For Consumer Goods Is Waning Automotive segment – Modern vehicles are increasingly reliant on chips for advanced brakes, steering systems, fuel efficiency, safety, and other features. So missing chips can easily stall production. While the segment is only 12% of the total, it has gotten the industry’s most negative rap. Auto manufacturers, for example, could experience a $61bn loss in revenue due to supply constraints in 2021.7 However, this segment is expected to grow in the high single digits due to significant pent-up demand for autos (Chart 14). Interestingly, EV makers that deploy the most sophisticated chips were somewhat spared from shortages, which afflicted mostly mainstream chip categories. Chart 14Auto Segment Is Expected To Grow Due To Pent-Up Demand For Cars Chips Power The Fourth Industrial Revolution Besides these well-established markets, Semis are also intrinsically a play on every single emerging technology theme. Semiconductors are at the core of disruptive technologies and the fourth industrial revolution. Artificial Intelligence (AI) and Machine Learning (ML) rely heavily on computing power delivered by sophisticated chips to process massive datasets looking for insights. As AI becomes widely deployed in a wide range of industries, demand for powerful chips is bound to soar: The size of the AI chip market is forecast to increase eight-fold from an estimated $10.14bn in 2020 to $83.25bn by 2027.8 Internet of Things (IoT), or interconnectedness of electronics, is another source of demand for chips. However, to realize the full potential of this new-generation technology, processors, modems, and other communication infrastructure must be modernized. 5G adoption is starting to accelerate as new applications are being developed such as the metaverse, immersive gaming, and virtual reality. The higher data rates and lower latencies made possible by 5G are expected to be a driver of demand for advanced semiconductors. In a 2021 KPMG survey, 53% of semiconductor companies believe 5G will become a significant driver of revenue growth in one to two years, and 19% believe it could happen in less than a year.9 Automation: Be it self-driving cars or the installation of manufacturing assembly robots, both require semiconductors. Recent labor shortages and rising wages are another reason automation is to come to the fore: US manufacturers are a case in point, lagging their European and Asian counterparts in new robot installation and in dire need of catching up. While it’s true that automation does not bring an explosive demand shock like IoT and AI do, we would not underestimate the power of that structural force (Chart 15). Fundamentals Sales Growth And Profitability According to the WSTS, the worldwide semiconductor market is expected to show an outstanding growth rate of 25 percent in 2021. The largest growth contributors are Memory with 37.1 percent, followed by Analog with 29.1 percent, and Logic with 26.2 percent. By 2022, the global semiconductor market growth is expected to slow and is projected to grow by 10.1 percent. Americas are expected to grow at 12% next year.10 These forecasts align rather well with bottom-up sales growth forecasts by street analysts at 10.8% (Chart 16), which exceed projected nominal GDP growth of 7.6% and expected sales growth of the S&P 500. This industry continues to be powered by pent-up demand, backlogs of orders, and adoption of brand-new technologies. Earnings growth has recently slowed (Chart 17). Semis is an R&D intense industry, especially for the fabless US companies, which continue to plow funds into research and design of chips to retain a competitive edge. After a pandemic hiatus, the industry now is starting to ramp up its Capex outlays (Chart 18). Chart 16Sales Growth Is To Stay Robust... Chart 17But Earnings Growth Is Set To Decelerate Recent labor shortages and rising wages have not bypassed highly educated segments of the labor market, cutting into the profitability of these high-tech labor-intensive businesses. And of course, this industry is not immune to rising costs of raw materials and supply-chain disruptions, albeit less so than many businesses further downstream in the value chain, such as Autos. Chart 18After Pandemic Hiatus, Capex Is On The Way Back Chart 19Margins Are Expected To Expand Further Despite all the production challenges, Semis is one of the few industries that are projected to further expand its margins in the coming year (Chart 19). However, just like many other industries, their pricing power is overextended (Chart 20) and is likely to mean revert, constraining companies to pass on higher costs of design, raw materials, and manufacturing to customers. Chart 20Pricing Power Is Extreme And Is Likely To Mean Revert Valuations Semis is an industry whose earnings are expected to grow at 8% over the next 12 months, which is on par with the S&P 500. However, Semis are trading at 24x forward earnings, or with a 14% premium to the S&P 500 (21.3x) (Chart 21). Further, earnings growth is decelerating. It is hard to justify this valuation premium, especially in the context of imminent rate hikes. Of course, valuations may reflect the fact that demand for chips is still extremely strong both from conventional markets and nascent technology applications. The industry is also highly profitable, and margins are expected to expand in 2022. To break the tie, we will turn to the analysis of the macroeconomic backdrop in 2022 and whether it is going to be favorable for the industry. Chart 21Valuations Are Overextended Macroeconomic Backdrop Semiconductor stocks as a group aren’t just highly sensitive to economic growth, they’re nearly immediately so, sniffing out economic rebounds and downturns before they become evident in broad market data. As a result, investors have to remain on their guard and be very nimble. Subtle shifts in the economic outlook can have a big impact on relative performance. At the moment, several macro trends constitute a headwind for the outperformance of the industry: Global bond yields are expected to rise due to the concerted action of Central Banks, dampening demand for chips, dragging down the sales growth of the Semis, and diminishing future cash flows (Chart 22). The US ISM Manufacturing index has peaked, while the ISM New Orders index is in a downward trend, suggesting an emerging decline in production and diminished demand for chips (Chart 23) Chinese growth is slowing and BCA Research’s house view is that a rebound is not likely until later in 2022. Chart 22Rising Bond Yields Will Be A Headwind For Semis Chart 23Decline In The ISM New Orders Signal Less Demand For Semis Therefore, we conclude that, while economic growth is to remain strong in 2022, and will provide a tailwind for many cyclical sectors, semiconductor growth is set to slow, and valuations are likely to compress as a reaction to rising bond yields. The macroeconomic outlook for the industry is contingent upon the direction of the interest rates and is sensitive to economic growth disappointments. In short, the macroeconomic backdrop is unfavorable. Investment Implications The semiconductor industry is positioned at the very core of the global economy. It is one of the key growth engines of the US economy, and one of its top exports. This is an industry highly geared to economic growth and exposed to a variety of emerging technology themes, such as 5G, self-driving vehicles, and the metaverse among many others. It is R&D and Capex intensive and sophisticated. We believe in Semis as a long-term structural theme. Tactically, we are concerned that in 2022 this industry may face macroeconomic headwinds being highly sensitive to slowing growth and rising rates, which are detrimental to the performance of this growth-oriented and cyclical sector. From a fundamental standpoint, sales and earnings growth are slowing and are on par with that of a broad market, yet Semis are trading with a premium to the S&P 500. Tactically, we are neutral on a sector, but structurally we are bullish. We recommend investors with longer holding horizons explore the following ETFs (Table 2), that are designed to capture Semis as an investment theme. Table 2Semis ETFs Bottom Line In this deep-dive report on the Semiconductor industry, we review the supply chain, the key labor division between fabless chip designers and chips manufacturers, and the issues underpinning a recent push towards onshoring. We explore target markets and look at sales growth rates and fundamentals. We conclude that we are bullish on the industry on a structural basis but are more ambivalent about its prospects over the next 3-6 months downgrading our portfolio overweight to an equal-weight. Irene Tunkel Chief Strategist, US Equity Strategy irene.tunkel@bcaresearch.com Footnotes 1 Semiconductor Industry Association (SIA) "2021 Industry Facts" May 19, 2021 2 Semiconductor Industry Association (SIA) "2021 STATE OF THE U.S. SEMICONDUCTOR INDUSTRY" 3 Global X "Putting the Chip Shortage into the Context of Long-Term Trends" May 24, 2021 4 Ibid 5 Ibid 6 Ibid 7 Bloomberg, “Chip Shortage: Taiwan, South Korea’s Manufacturing Lead Worries U.S., China” March 3, 2021 8 Ibid 9 Ibid 10 World Semiconductor Trade Statistics "Semiconductor Market Forecast Fall 2021" November 30, 2021 Recommended Allocation